mhurhangee/patent-ind-claim-en huggingface dataset:
Self-propelled street cleaning machine with a carrier vehicle and, mounted thereon, a cleaning assembly which comprises a dirt pick-up device, a dirt collection container as well as at least one rotabably driven feed-in brush borne on a brush carrier laterally on the carrier vehicle and a spring assembly , wherein by way of a swivel arm device , the feed-in brush is borne on a carrier structure fixed to the vehicle so as to be able to change position between a swivelled out operating position in the direction of travel and as swivelled in transporting position opposite to the direction of travel, wherein the spring assembly , which is supported on the carrier structure and pretensions the swivel arm device in the direction of the operating position of the feed-in brush , acts on the swivel arm device , wherein the carrier structure comprises a stop against which, through the action of the spring assembly , the swivel arm device comes into contact; operating between the carrier structure and the swivel arm assembly is a swivel drive by means of which the swivel arm assembly can be swivelled into the position corresponding to the transporting position of the feed-in brush characterised in that the stop is adjustable and its setting can be adjusted from the cab of the carrier vehicle by means of a separate adjusting drive .
A device for filling containers for bags (B) of smokeless tobacco, specifically tobacco of the snus type, each container comprising a body (C) and an inner frame (T) comprising radial separators (S) defining a plurality of radial compartments, the device comprising: - an infeed station configured for feeding at least one succession of inner frames (T), wherein each inner frame (T) has a central portion (P) which extends around a respective central axis and a plurality of radial separators (S) extending away from the central portion (P) and defining a plurality of radial compartments which are angularly disposed around the central axis; - a filling station configured to feed a succession of individual bags (B) of smokeless tobacco to a respective inner frame (T); - a release station configured for releasing at least one succession of inner frames (T) which are full of bags (B); - a conveyor defining a feed line which passes through the infeed station , the filling station and the release station and which has at least one housing configured to hold and move a respective inner frame (T) from the infeed station to the release station by way of the filling station ; - suction means disposed in the filling station and configured to apply pneumatic suction in the housing of the conveyor disposed in the filling station ; - rotation means disposed in the filling station and confronting the housing of the conveyor disposed in the filling station , the rotation means being configured to set the inner frame (T) disposed in the housing in rotation about the respective central axis so that successive radial compartments of the inner frame (T) each confront a respective bag (B) to be inserted in sequence. - an infeed station configured for feeding at least one succession of inner frames (T), wherein each inner frame (T) has a central portion (P) which extends around a respective central axis and a plurality of radial separators (S) extending away from the central portion (P) and defining a plurality of radial compartments which are angularly disposed around the central axis; - a filling station configured to feed a succession of individual bags (B) of smokeless tobacco to a respective inner frame (T); - a release station configured for releasing at least one succession of inner frames (T) which are full of bags (B); - a conveyor defining a feed line which passes through the infeed station , the filling station and the release station and which has at least one housing configured to hold and move a respective inner frame (T) from the infeed station to the release station by way of the filling station ; - suction means disposed in the filling station and configured to apply pneumatic suction in the housing of the conveyor disposed in the filling station ; - rotation means disposed in the filling station and confronting the housing of the conveyor disposed in the filling station , the rotation means being configured to set the inner frame (T) disposed in the housing in rotation about the respective central axis so that successive radial compartments of the inner frame (T) each confront a respective bag (B) to be inserted in sequence.
A process for the production of xylose and dissolving pulp from xylan-containing biomass, which has a xylan content of 10 to 35%, calculated on the dry substance of the biomass, characterized by the steps of (a) prehydrolyzing the xylan-containing biomass in a digester with a solution containing sulphur dioxide in a concentration of 0.1 to 2.5% based on the total liquid weight of the prehydrolysis liquid, at a temperature of 120 to 150°C and with a reaction time of 0.3 to 1 h, to provide a dissolved hemicellulose hydrolyzate, wherein the xylose content is 25 to 55% on DS, the ratio of xylose to xylo-oligomers is more than 2 and the xylose yield is 30 to 80% on xylan in the biomass, and a non-dissolved prehydrolyzed biomass, (b) separating the dissolved hemicellulose hydrolyzate from the non-dissolved prehydrolyzed biomass, (c) subjecting the dissolved hemicellulose hydrolyzate having a xylose content of 25 to 55% to chromatographic fractionation, nanofiltration or precipitation crystallization to obtain a xylose product having a xylose content of at least 55% on DS, (d) subjecting the non-dissolved prehydrolyzed biomass to cooking with sulphate method in the digester to obtain dissolving pulp with a kappa of less than 14 and a viscosity of more than 600 ml/g, and (e) recovering the xylose product having a xylose content of at least 55% on DS and the dissolving pulp. (a) prehydrolyzing the xylan-containing biomass in a digester with a solution containing sulphur dioxide in a concentration of 0.1 to 2.5% based on the total liquid weight of the prehydrolysis liquid, at a temperature of 120 to 150°C and with a reaction time of 0.3 to 1 h, to provide a dissolved hemicellulose hydrolyzate, wherein the xylose content is 25 to 55% on DS, the ratio of xylose to xylo-oligomers is more than 2 and the xylose yield is 30 to 80% on xylan in the biomass, and a non-dissolved prehydrolyzed biomass, (b) separating the dissolved hemicellulose hydrolyzate from the non-dissolved prehydrolyzed biomass, (c) subjecting the dissolved hemicellulose hydrolyzate having a xylose content of 25 to 55% to chromatographic fractionation, nanofiltration or precipitation crystallization to obtain a xylose product having a xylose content of at least 55% on DS, (d) subjecting the non-dissolved prehydrolyzed biomass to cooking with sulphate method in the digester to obtain dissolving pulp with a kappa of less than 14 and a viscosity of more than 600 ml/g, and (e) recovering the xylose product having a xylose content of at least 55% on DS and the dissolving pulp.
A sulfide solid electrolyte having: peak A at 2θ = 20.7° ± 0.5° in an X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuKα1 radiation, peak B at 2θ = 25.4° ± 1.0° in the X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuKα1 radiation, and peak C at 2θ = 22.0° ± 0.5° in the X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuKα1 radiation, wherein a value of a ratio of I C to I B , I C /I B , is more than 0 and 2.0 or less, where I B is an intensity of peak B, and I C is an intensity of peak C, and wherein the sulfide solide electrolyte comprises elemental lithium (Li), elemental phosphorus (P), elemental sulfur (S), an elemental halogen (X), and elemental oxygen (O). peak A at 2θ = 20.7° ± 0.5° in an X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuKα1 radiation, peak B at 2θ = 25.4° ± 1.0° in the X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuKα1 radiation, and peak C at 2θ = 22.0° ± 0.5° in the X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuKα1 radiation,
An insulated building wall comprising an external thermal insulation composite system (ETICS) and a building wall , wherein the ETICS is affixed to the building wall , the ETICS comprising: (i) an insulation sub-system , said insulation sub-system being either (a) an insulation sub-system comprising at least a first insulating plate which contains from 20 to 90 wt % aerogel and at least a second insulating plate which contains mineral wool, or (b) an insulation sub-system comprising at least one composite insulating plate containing mineral wool and from 20 to 90 wt % aerogel, and (ii) at least one mechanical fastener for fastening either (a) said first insulating plate and said second insulating plate , or (b) the at least one composite insulating plate , to the building wall , and (iii) an outer layer. (i) an insulation sub-system , said insulation sub-system being either (a) an insulation sub-system comprising at least a first insulating plate which contains from 20 to 90 wt % aerogel and at least a second insulating plate which contains mineral wool, or (b) an insulation sub-system comprising at least one composite insulating plate containing mineral wool and from 20 to 90 wt % aerogel, and (a) an insulation sub-system comprising at least a first insulating plate which contains from 20 to 90 wt % aerogel and at least a second insulating plate which contains mineral wool, or (b) an insulation sub-system comprising at least one composite insulating plate containing mineral wool and from 20 to 90 wt % aerogel, and (ii) at least one mechanical fastener for fastening either (a) said first insulating plate and said second insulating plate , or (b) the at least one composite insulating plate , to the building wall , and (a) said first insulating plate and said second insulating plate , or (b) the at least one composite insulating plate , (iii) an outer layer.
A method of manufacturing a watertube panel portion for a fluidized bed reactor, the method comprising the steps of: (a) providing multiple metal tubes comprising a first end portion, a second end portion, and a central portion between the first end portion and the second end portion, wherein each of the first end portion and the second end portion has an outer surface and a substantially constant outer diameter OD1, and the central portion has an outer surface and a substantially constant outer diameter OD2, that is less than the outer diameter OD1; (b) providing a circumferentially extending metal coating having a substantially constant thickness of at most D, wherein D is (OD1-OD2)/2, on the outer surface of the central portion to blanket the outer surface of the central portion; (c) arranging the multiple metal tubes in a plane in parallel to each other, and (d) forming the watertube panel portion by continuously welding a fin between each pair of adjacent in parallel arranged metal tubes. (a) providing multiple metal tubes comprising a first end portion, a second end portion, and a central portion between the first end portion and the second end portion, wherein each of the first end portion and the second end portion has an outer surface and a substantially constant outer diameter OD1, and the central portion has an outer surface and a substantially constant outer diameter OD2, that is less than the outer diameter OD1; (b) providing a circumferentially extending metal coating having a substantially constant thickness of at most D, wherein D is (OD1-OD2)/2, on the outer surface of the central portion to blanket the outer surface of the central portion; (c) arranging the multiple metal tubes in a plane in parallel to each other, and (d) forming the watertube panel portion by continuously welding a fin between each pair of adjacent in parallel arranged metal tubes.
Device for arranging and removing a strip of covering material, such as film or cloth, on a trench silo , which device comprises: - a mobile gantry with means for holding a roller with covering material and at least one motor for driving the mobile gantry in order to move the gantry along the trench silo ; characterized by - a carriage arranged on the mobile gantry with a mechanical coupling ; - an energy source, such as a generator, battery or hydraulic pump, arranged on the carriage ; and - a rapid coupling for coupling the energy source to the at least one motor. - a mobile gantry with means for holding a roller with covering material and at least one motor for driving the mobile gantry in order to move the gantry along the trench silo ; characterized by - a carriage arranged on the mobile gantry with a mechanical coupling ; - an energy source, such as a generator, battery or hydraulic pump, arranged on the carriage ; and - a rapid coupling for coupling the energy source to the at least one motor.
A method for improving the foldability by reducing the mechanical resistance of a substrate to be folded in at least one first folding area of the substrate to be folded, wherein the reduction of the mechanical resistance is attained by application of a fluid by means of a printing forme-variable printing device embodied as inkjet printing device, characterized in that in the first folding area, the fluid is applied by means of at least one printing ink via the inkjet printing device.
A multi-layered product for oral administration and controlled release of a plurality of different active substances into the rumen of a production-type animal, the product comprising a core of urea and progressing from the core in a concentric manner: - a coating matrix formed from hydrogenated fats based on rapeseed, sunflower, or palm oil, with degradation kinetics in the rumen of between 1 and 24 hours, - a layer of a second active substance selected from micronised calcium carbonate, micronised sodium sulphate, micronised quilaia powder, and micronised Ascophyllum Nodosum powder, - a coating matrix formed from hydrogenated fats based on rapeseed, sunflower, or palm oil, with degradation kinetics in the rumen of between 1 and 24 hours, the amount of coating matrix being between 2 and 13%, by weight of the product the product being in the form of a spherical ball with a diameter of between 0.01 and 5 mm. - a coating matrix formed from hydrogenated fats based on rapeseed, sunflower, or palm oil, with degradation kinetics in the rumen of between 1 and 24 hours, - a layer of a second active substance selected from micronised calcium carbonate, micronised sodium sulphate, micronised quilaia powder, and micronised Ascophyllum Nodosum powder, - a coating matrix formed from hydrogenated fats based on rapeseed, sunflower, or palm oil, with degradation kinetics in the rumen of between 1 and 24 hours, the amount of coating matrix being between 2 and 13%, by weight of the product the product being in the form of a spherical ball with a diameter of between 0.01 and 5 mm. the amount of coating matrix being between 2 and 13%, by weight of the product the product being in the form of a spherical ball with a diameter of between 0.01 and 5 mm.
A light detector , comprising: a conductive layer including a first conductive portion and a second conductive portion ; a first element including a first semiconductor layer and a second semiconductor layer , the first semiconductor layer being of a first conductivity type, the second semiconductor layer being of a second conductivity type and being provided between the first conductive portion and the first semiconductor layer in a second direction crossing a first direction, the first direction being from the first conductive portion toward the second conductive portion ; a second element including a fourth semiconductor layer and a fifth semiconductor layer , the fourth semiconductor layer being of the first conductivity type, the fifth semiconductor layer being of the second conductivity type and being provided between the second conductive portion and the fourth semiconductor layer in the second direction; a first member provided between the first element and the second element and electrically connected to the conductive layer , the first member being conductive; a first insulating part provided between the first element and the first member ; and a second insulating part provided between the second element and the first member . a conductive layer including a first conductive portion and a second conductive portion ; a first element including a first semiconductor layer and a second semiconductor layer , the first semiconductor layer being of a first conductivity type, the second semiconductor layer being of a second conductivity type and being provided between the first conductive portion and the first semiconductor layer in a second direction crossing a first direction, the first direction being from the first conductive portion toward the second conductive portion ; a second element including a fourth semiconductor layer and a fifth semiconductor layer , the fourth semiconductor layer being of the first conductivity type, the fifth semiconductor layer being of the second conductivity type and being provided between the second conductive portion and the fourth semiconductor layer in the second direction; a first member provided between the first element and the second element and electrically connected to the conductive layer , the first member being conductive; a first insulating part provided between the first element and the first member ; and a second insulating part provided between the second element and the first member .
A method for processing access control, comprising: establishing a corresponding relationship between a type of a Modem and an access strategy for the Modem to access a network (S102); identifying the type of the Modem which requests to access the network during at least one interactive handshake with the modem (S104); determining the access strategy for the Modem to access the network according to the identified type of the Modem and the corresponding relationship (S106); and controlling the Modem to access the network according to the determined access strategy (S108); characterized in that the access strategy comprises at least one of: reducing a cut-off frequency of the Modem to a preset frequency for establishing a link, in a case that the type of the Modem is a Modem which does not support dynamic spectrum management; establishing a link for the Modem, in a case that the type of the Modem is the Modem which is allowed to access the network; and prohibiting the Modem from establishing a link, in a case that the type of the Modem is the Modem which is restricted to access the network. establishing a corresponding relationship between a type of a Modem and an access strategy for the Modem to access a network (S102); identifying the type of the Modem which requests to access the network during at least one interactive handshake with the modem (S104); determining the access strategy for the Modem to access the network according to the identified type of the Modem and the corresponding relationship (S106); and controlling the Modem to access the network according to the determined access strategy (S108); characterized in that the access strategy comprises at least one of: reducing a cut-off frequency of the Modem to a preset frequency for establishing a link, in a case that the type of the Modem is a Modem which does not support dynamic spectrum management; establishing a link for the Modem, in a case that the type of the Modem is the Modem which is allowed to access the network; and prohibiting the Modem from establishing a link, in a case that the type of the Modem is the Modem which is restricted to access the network. reducing a cut-off frequency of the Modem to a preset frequency for establishing a link, in a case that the type of the Modem is a Modem which does not support dynamic spectrum management; establishing a link for the Modem, in a case that the type of the Modem is the Modem which is allowed to access the network; and prohibiting the Modem from establishing a link, in a case that the type of the Modem is the Modem which is restricted to access the network.
A method executed by a user equipment , the method comprising: receiving radio resource control, RRC, signaling and receiving (S110) downlink control information, DCI, the RRC signaling comprising a maximum physical uplink shared channel, PUSCH, repetition value, and the DCI comprising a repetition number indication field; determining a defined set of PUSCH repetition values corresponding to the maximum PUSCH repetition value; selecting a parameter n from the defined set of PUSCH repetition values based on the repetition number indication field; characterized in determining (S120) a total number of subframes N required to transmit a PUSCH according to the parameter n, a total number of allocated resource units N RU , and time occupied by each resource unit N t UL ; and transmitting (S130) the PUSCH in the N subframes, wherein the total number of the subframes N is equal to the parameter n when an indication of sub-physical resource block, PRB, resource allocation mode is not received via the RRC signaling or via the DCI, the total number of the subframes N is equal to a value calculated by multiplying a first parameter by a second parameter when the indication of sub-PRB resource allocation mode is received via the RRC signaling or via the DCI, the first parameter is a product of the total number of allocated resource units N RU and a total number of uplink slots occupied by each resource unit N slots UL divided by 2, and the second parameter is a nearest integer equal to or larger than a quotient of the parameter n divided by the first parameter. receiving radio resource control, RRC, signaling and receiving (S110) downlink control information, DCI, the RRC signaling comprising a maximum physical uplink shared channel, PUSCH, repetition value, and the DCI comprising a repetition number indication field; determining a defined set of PUSCH repetition values corresponding to the maximum PUSCH repetition value; selecting a parameter n from the defined set of PUSCH repetition values based on the repetition number indication field; characterized in determining (S120) a total number of subframes N required to transmit a PUSCH according to the parameter n, a total number of allocated resource units N RU , and time occupied by each resource unit N t UL ; and transmitting (S130) the PUSCH in the N subframes, wherein the total number of the subframes N is equal to the parameter n when an indication of sub-physical resource block, PRB, resource allocation mode is not received via the RRC signaling or via the DCI, the total number of the subframes N is equal to a value calculated by multiplying a first parameter by a second parameter when the indication of sub-PRB resource allocation mode is received via the RRC signaling or via the DCI, the first parameter is a product of the total number of allocated resource units N RU and a total number of uplink slots occupied by each resource unit N slots UL divided by 2, and the second parameter is a nearest integer equal to or larger than a quotient of the parameter n divided by the first parameter.