mhurhangee/ep-ind-claims huggingface dataset:
A method for a network node for improving a link quality between a network and a mobile terminal (7, 100), wherein the network comprises a first base station (1, 111) serving the terminal (7, 100) and a second base station (5, 3, 110), the method comprising the steps: Determining a mobility of the terminal (7, 100) moving through a coverage area of the first base station; Determining location information of the second base station (5, 3, 110), wherein a coverage area of the second base station is at least partially overlapping with the coverage area of the first base station; Determining based on the mobility and the location information a probability that the terminal (7, 100) will enter a coverage area (4, 6) of the second base station (5, 3, 110) or a probability that the terminal (7, 100) will stay in a coverage area (4, 6) of the second bases station (5, 3, 110) at least for a predefined period of time; Determining that the probability determined is higher than a first threshold; Assessing an impact of interference from the second base station on the terminal or from the terminal on the second base station; and if the impact of interference is lower than a second threshold no action to improve link quality is taken else selecting a procedure to improve the link quality and initiating to perform the selected procedure. Determining a mobility of the terminal (7, 100) moving through a coverage area of the first base station; Determining location information of the second base station (5, 3, 110), wherein a coverage area of the second base station is at least partially overlapping with the coverage area of the first base station; Determining based on the mobility and the location information a probability that the terminal (7, 100) will enter a coverage area (4, 6) of the second base station (5, 3, 110) or a probability that the terminal (7, 100) will stay in a coverage area (4, 6) of the second bases station (5, 3, 110) at least for a predefined period of time; Determining that the probability determined is higher than a first threshold; Assessing an impact of interference from the second base station on the terminal or from the terminal on the second base station; and if the impact of interference is lower than a second threshold no action to improve link quality is taken else selecting a procedure to improve the link quality and initiating to perform the selected procedure.
A method for operating a transmission end in a wireless communication system, the method comprising: dividing an information bit stream into a plurality of portions; encoding each of the plurality of portions using different encoding schemes; and transmitting a frequency and quadrature-amplitude modulation, FQAM, symbol generated by combining result values of the encoding of each of the plurality of portions, wherein the information bit stream is divided into a first portion and a second portion, wherein the first portion comprises at least one bit mapped to a Frequency Shift Keying, FSK, symbol of the FQAM symbol, wherein the second portion comprises at least one bit mapped to a Quadrature Amplitude Modulation, QAM, symbol of the FQAM symbol, and wherein the different encoding schemes are encoding schemes with different respective alphabet sizes. dividing an information bit stream into a plurality of portions; encoding each of the plurality of portions using different encoding schemes; and transmitting a frequency and quadrature-amplitude modulation, FQAM, symbol generated by combining result values of the encoding of each of the plurality of portions, wherein the information bit stream is divided into a first portion and a second portion, wherein the first portion comprises at least one bit mapped to a Frequency Shift Keying, FSK, symbol of the FQAM symbol, wherein the second portion comprises at least one bit mapped to a Quadrature Amplitude Modulation, QAM, symbol of the FQAM symbol, and wherein the different encoding schemes are encoding schemes with different respective alphabet sizes.
An agricultural machine for sowing or the application of fertilizer with at least one longitudinal hopper and at least one central metering device, the longitudinal hopper is a basic supporting part of the whole machine and is arranged to be self-supporting, wherein at its front end is arranged a device for connecting to a towing means and its back end is connected with at least one means of support and at least one distribution device, and the longitudinal hopper is arranged to be torsionally rigid, while the longitudinal hopper is composed of flat segments which are solidly connected to each other, and the longitudinal hopper comprises at least one coupling element (8,9,10,11), to which is mounted at least one working part of the agricultural machine and/or a section of the working part of the agricultural machine.
Shielding device for a hearing aid, wherein the shielding device has at least three sections which are in each case connected to one another by means of a flexible connecting section, wherein at least one first section is provided with a printed circuit board and can be populated with at least one component and/or one integrated circuit, wherein the two other sections can be folded around the first section by means of the flexible connecting sections in order to shield the first section, wherein the shielding device has at least one continuous strip or two or more continuous strips which are disposed one above the other and additionally at least one or two layers of strips is/are disposed on at least one or both outer sides of the strips, wherein the strips of a layer respectively form the sections of the shielding device, characterized in that one or both sections, which form the top side and bottom side of the shielding device in the folded-together state, are narrower than the section lying underneath at least on one or both sides, so that at least one wire can be connected to the section lying underneath.
A data transmitting apparatus characterised by: a packet generation unit for generating a metadata packet for 3D multi-channel audio data; and a transmission unit for transmitting the generated metadata packet to a receiving apparatus; and wherein the generated metadata packet comprises: an audio channel allocation standard type field that indicates a channel allocation standard type of the multi-channel audio data; and a 3D channel / speaker allocation field indicating a channel information of the multi-channel audio data and an allocation of speaker locations for the channel allocation standard type indicated in the audio channel allocation standard type field, the 3D channel / speaker allocation field being 1 byte, a channel count field indicating the number of the 3D multi-channel audio data, and the channel count field being 5 bits, and wherein the audio channel allocation standard type field indicates an audio channel allocation of one from among 10.2 channels, 22.2 channels and 30.2 channels. a packet generation unit for generating a metadata packet for 3D multi-channel audio data; and a transmission unit for transmitting the generated metadata packet to a receiving apparatus; and wherein the generated metadata packet comprises: an audio channel allocation standard type field that indicates a channel allocation standard type of the multi-channel audio data; and a 3D channel / speaker allocation field indicating a channel information of the multi-channel audio data and an allocation of speaker locations for the channel allocation standard type indicated in the audio channel allocation standard type field, the 3D channel / speaker allocation field being 1 byte, a channel count field indicating the number of the 3D multi-channel audio data, and the channel count field being 5 bits, and an audio channel allocation standard type field that indicates a channel allocation standard type of the multi-channel audio data; and a 3D channel / speaker allocation field indicating a channel information of the multi-channel audio data and an allocation of speaker locations for the channel allocation standard type indicated in the audio channel allocation standard type field, the 3D channel / speaker allocation field being 1 byte, a channel count field indicating the number of the 3D multi-channel audio data, and the channel count field being 5 bits, and wherein the audio channel allocation standard type field indicates an audio channel allocation of one from among 10.2 channels, 22.2 channels and 30.2 channels.
Gas discharge lamp, comprising: • A gas-filled lamp bulb; • an anode arranged inside the lamp bulb; • a cathode arranged at a distance with respect to the anode inside the lamp bulb; • a housing comprising a form body, a rear housing wall, as well as a housing base at least part of which is not electrically conductive, • whereby the housing base comprises a housing front, an intermediate housing wall, and a cathode space; • and a cathode shielding window; • whereby the housing front and the intermediate housing wall consists of ceramic material, characterised in that the cathode shielding window comprises a metal and is insulated with respect to the form body and the rear housing wall, whereby the rear housing wall comprises a metal. • A gas-filled lamp bulb; • an anode arranged inside the lamp bulb; • a cathode arranged at a distance with respect to the anode inside the lamp bulb; • a housing comprising a form body, a rear housing wall, as well as a housing base at least part of which is not electrically conductive, • whereby the housing base comprises a housing front, an intermediate housing wall, and a cathode space; • and a cathode shielding window; • whereby the housing front and the intermediate housing wall consists of ceramic material,
An apparatus comprising: a cap (104, 504) with a capping surface and one or more sidewalls extending away from the capping surface along a direction having a major component that is parallel to a normal of the capping surface; a plunger head (110, 510, 610, 710, 810), the plunger head (110, 510, 610) sized to fit within an interior of a container with which the cap is to interface; a retaining feature; and an opening in the cap, wherein: the plunger head includes a shaft-receiving feature to receive a shaft that is insertable through the opening, the shaft-receiving feature is a hole that extends through the plunger head (110, 510, 610), the plunger head (110, 510, 610, 710, 810) is positioned within the cap (104, 504, 604) by the retaining feature such that the opening is aligned with the shaft-receiving feature, and the retaining feature (112, 512, 612, 712, 812) releases the plunger head when a force higher than a first threshold amount is applied to the plunger head (110, 510, 610, 710, 810) in a direction facing away from, and normal to, the capping surface. a cap (104, 504) with a capping surface and one or more sidewalls extending away from the capping surface along a direction having a major component that is parallel to a normal of the capping surface; a plunger head (110, 510, 610, 710, 810), the plunger head (110, 510, 610) sized to fit within an interior of a container with which the cap is to interface; a retaining feature; and an opening in the cap, wherein: the plunger head includes a shaft-receiving feature to receive a shaft that is insertable through the opening, the shaft-receiving feature is a hole that extends through the plunger head (110, 510, 610), the plunger head (110, 510, 610, 710, 810) is positioned within the cap (104, 504, 604) by the retaining feature such that the opening is aligned with the shaft-receiving feature, and the retaining feature (112, 512, 612, 712, 812) releases the plunger head when a force higher than a first threshold amount is applied to the plunger head (110, 510, 610, 710, 810) in a direction facing away from, and normal to, the capping surface. the plunger head includes a shaft-receiving feature to receive a shaft that is insertable through the opening, the shaft-receiving feature is a hole that extends through the plunger head (110, 510, 610), the plunger head (110, 510, 610, 710, 810) is positioned within the cap (104, 504, 604) by the retaining feature such that the opening is aligned with the shaft-receiving feature, and the retaining feature (112, 512, 612, 712, 812) releases the plunger head when a force higher than a first threshold amount is applied to the plunger head (110, 510, 610, 710, 810) in a direction facing away from, and normal to, the capping surface.
A propulsion engine comprising: - at least a first propulsion unit including a first fan and a combustion engine driving a first shaft connected to the first fan; - at least a second propulsion unit including a second fan connected to a second shaft operatively coupled to an electric machine; - at least an electric storage device connected to the electric machine; characterized in that: - the first and second fans (13, 23) of the first and second propulsion units (11, 21) are encased by geared rings (19, 29) configured to transmit torque between the fans and are arranged to rotate in conjunction when they are driven by at least one of said first and second shafts (17, 27); - the electric machine of the second propulsion unit is arranged for actuating in combination with the electric storage device whether as an electric motor extracting energy from the electric storage device to drive the second shaft or as an electric generator extracting the mechanical energy of the second shaft when is driven by the second fan to charge the electric storage device; - the propulsion engine also comprises control means connected to the combustion engine, to the electric machine and to the electric storage device for controlling the torque to be supplied to the assembly of the first and second fans (13, 23) by the combustion engine and/or by the electric machine acting as a motor and for controlling the charge of the electric storage device by the electric machine acting as an electric generator. - at least a first propulsion unit including a first fan and a combustion engine driving a first shaft connected to the first fan; - at least a second propulsion unit including a second fan connected to a second shaft operatively coupled to an electric machine; - at least an electric storage device connected to the electric machine; - the first and second fans (13, 23) of the first and second propulsion units (11, 21) are encased by geared rings (19, 29) configured to transmit torque between the fans and are arranged to rotate in conjunction when they are driven by at least one of said first and second shafts (17, 27); - the electric machine of the second propulsion unit is arranged for actuating in combination with the electric storage device whether as an electric motor extracting energy from the electric storage device to drive the second shaft or as an electric generator extracting the mechanical energy of the second shaft when is driven by the second fan to charge the electric storage device; - the propulsion engine also comprises control means connected to the combustion engine, to the electric machine and to the electric storage device for controlling the torque to be supplied to the assembly of the first and second fans (13, 23) by the combustion engine and/or by the electric machine acting as a motor and for controlling the charge of the electric storage device by the electric machine acting as an electric generator.
Vortex-shedding-arrangement, - the Vortex-shedding-arrangement is arranged and prepared to be connected to a surface of a tower, - the Vortex-shedding-arrangement is prepared to reduce Vortex-induced-vibrations, acting on the tower and its structure, wherein the vortex shedding arrangement comprises vortex shedding elements and at least one shrink foil (SF1, SF2), - wherein the vortex shedding elements are connected with the shrink foil (SF1, SF2), and - wherein the shrink foil (SF1, SF2) is prepared to fix and to position the vortex shedding elements at specific positions at the tower surface by heat applied to the shrink foil. - the Vortex-shedding-arrangement is arranged and prepared to be connected to a surface of a tower, - the Vortex-shedding-arrangement is prepared to reduce Vortex-induced-vibrations, acting on the tower and its structure, wherein the vortex shedding arrangement comprises vortex shedding elements and at least one shrink foil (SF1, SF2), - wherein the vortex shedding elements are connected with the shrink foil (SF1, SF2), and - wherein the shrink foil (SF1, SF2) is prepared to fix and to position the vortex shedding elements at specific positions at the tower surface by heat applied to the shrink foil.
A top cover assembly, comprising: a top cover plate, the top cover plate provided with a mounting hole, and the mounting hole comprising a sealing hole section; a pole, configured to insert into the mounting hole, the pole comprising a sealing shaft section, wherein the sealing shaft section is configured to insert into the sealing hole section, and a side wall of the sealing hole section and a side wall of the sealing shaft section are both tilted with respect to an axis of the mounting hole; and a sealing ring, disposed between the side wall of the sealing hole section and the side wall of the sealing shaft section; a thickness of the sealing ring is less than or equal to a thickness of the top cover plate, a top part of the sealing ring does not exceed a top part of the top cover plate, and a bottom part of the sealing ring does not exceed a bottom part of the top cover plate. a top cover plate, the top cover plate provided with a mounting hole, and the mounting hole comprising a sealing hole section; a pole, configured to insert into the mounting hole, the pole comprising a sealing shaft section, wherein the sealing shaft section is configured to insert into the sealing hole section, and a side wall of the sealing hole section and a side wall of the sealing shaft section are both tilted with respect to an axis of the mounting hole; and a sealing ring, disposed between the side wall of the sealing hole section and the side wall of the sealing shaft section; a thickness of the sealing ring is less than or equal to a thickness of the top cover plate, a top part of the sealing ring does not exceed a top part of the top cover plate, and a bottom part of the sealing ring does not exceed a bottom part of the top cover plate.
A Nd-doped or Yb-doped or Er-doped phosphate glass composition comprising (based on mol %): P 2 O 5 40.00 - 70.00 B 2 O 3 0.00 - 20.00 SiO 2 0.00 - 15.00 Al 2 O 3 2.00 - 15.00 Nd 2 O 3 0.00 - 5.00 Yb 2 O 3 0.00 - solubility limit Er 2 O 3 0.00 - 5.00 CeO 2 (or an equivalent amount of Ce 2 O 3) 0.25 - 30.00 La 2 O 3 0.00 MO 0.00 M' 2 O 0.00 - 20.00 wherein MO is the sum of MgO, CaO, SrO, BaO, and ZnO, M' 2 O is the sum of Li 2 O, Na 2 O, K 2 O, and Cs 2 O, the sum of P 2 O 5, B 2 O 3, SiO 2, and Al 2 O 3 is at least 46 mol%, all or a portion of CeO 2 can be replaced by an equivalent amount of Ce 2 O 3, in which an equivalent amount of Ce 2 O 3 means an amount having the same number of moles of Ce as an amount of CeO 2, the sum of La 2 O 3, CeO 2, Ce 2 O 3, Nd 2 O 3, Yb 2 O 3, and Er 2 O 3 is not more than 35.00 mol%, solubility limit refers to the concentration which is the limit of solubility of Yb 2 O 3 in the glass composition, and the glass contains at least 0.25 mol% Nd 2 O 3 and/or at least 0.50 mol% Yb 2 O 3 and/or at least 0.05 mol% Er 2 O 3. MO is the sum of MgO, CaO, SrO, BaO, and ZnO, M' 2 O is the sum of Li 2 O, Na 2 O, K 2 O, and Cs 2 O, the sum of P 2 O 5, B 2 O 3, SiO 2, and Al 2 O 3 is at least 46 mol%, all or a portion of CeO 2 can be replaced by an equivalent amount of Ce 2 O 3, in which an equivalent amount of Ce 2 O 3 means an amount having the same number of moles of Ce as an amount of CeO 2, the sum of La 2 O 3, CeO 2, Ce 2 O 3, Nd 2 O 3, Yb 2 O 3, and Er 2 O 3 is not more than 35.00 mol%, solubility limit refers to the concentration which is the limit of solubility of Yb 2 O 3 in the glass composition, and the glass contains at least 0.25 mol% Nd 2 O 3 and/or at least 0.50 mol% Yb 2 O 3 and/or at least 0.05 mol% Er 2 O 3.
Method to make a phosphorous modified zeolite, which contains at least 0.3 wt.% of P, comprising in that order: - selecting a zeolite with low Si/AI ratio advantageously lower than 30, among H + or NH 4 + -form of MFI, MEL, FER, MOR, clinoptilolite, said zeolite having been made preferably without direct addition of organic template; - steaming at a temperature ranging from 400 to 870°C for 0.01 -200h; - leaching with an aqueous acid solution containing the source of P at conditions effective to remove a substantial part of Al, i.e. at least 10% of Al in respect to parent zeolite MFI, MEL, FER, MOR and clinoptilolite, from the zeolite and to introduce at least 0.3 wt% of P; - separation of the solid from the liquid; - an optional drying step; - a washing step; - a calcination step. - selecting a zeolite with low Si/AI ratio advantageously lower than 30, among H + or NH 4 + -form of MFI, MEL, FER, MOR, clinoptilolite, said zeolite having been made preferably without direct addition of organic template; - steaming at a temperature ranging from 400 to 870°C for 0.01 -200h; - leaching with an aqueous acid solution containing the source of P at conditions effective to remove a substantial part of Al, i.e. at least 10% of Al in respect to parent zeolite MFI, MEL, FER, MOR and clinoptilolite, from the zeolite and to introduce at least 0.3 wt% of P; - separation of the solid from the liquid; - an optional drying step; - a washing step; - a calcination step.
A computer implemented method of generating a cost function to be used in the generation of a route across an electronic map, the method comprising: collecting, from a plurality of devices (850, 852) associated with a particular route planning profile (602, 710, 858), information relating to a plurality of example routes, each of the plurality of example routes being associated with the route planning profile (602, 710, 858); processing, with a cost function generating process, the information relating to the plurality of example routes to generate a cost function (606, 607) to be used with the route planning profile (602, 710, 858); and storing the generated cost function in association with the route planning profile (602, 710, 858). collecting, from a plurality of devices (850, 852) associated with a particular route planning profile (602, 710, 858), information relating to a plurality of example routes, each of the plurality of example routes being associated with the route planning profile (602, 710, 858); processing, with a cost function generating process, the information relating to the plurality of example routes to generate a cost function (606, 607) to be used with the route planning profile (602, 710, 858); and storing the generated cost function in association with the route planning profile (602, 710, 858).
A process for refining bio-based propylene glycol, wherein one, two or more of C 5 -C 20 oleophilic alcohol compounds, and C 4 -C 20 oleophilic ketone compounds are subjected to azeotropism as an azeotropic solvent together with the bio-based propylene glycol to obtain an azeotrope containing propylene glycol, then water is added to dissolve the propylene glycol in the azeotrope, the water-insoluble azeotropic solvent is separated from the propylene glycol aqueous solution, and propylene glycol is obtained from dehydration and refining of the resulting propylene glycol aqueous solution; wherein the C 5 -C 20 oleophilic alcohol compounds are selected from aliphatic alcohols and C 4 -C 20 oleophilic ketones are selected from aliphatic ketones or alicyclic ketones.
Computer assisted and robot guided laser osteotome comprising a robotic arm, a solid state photoablation laser source mounted in the robotic arm, a dedicated patient-photoablation laser autotracking system, and a computer console to control the photoablation laser source, a closed-loop control system to stop the laser source sending laser pulses at a hard-soft tissue interface when a bone is fully traversed, characterized in that the closed-loop control system has an optical sensor comprising color evaluating means.