mhurhangee/ep-ind-claims huggingface dataset:
A process for the exploitation of the anaerobic digestate leaving biogas energy production plants, said biogas energy production plants comprising a biodigester designed to treat an organic matrix and to produce biogas and a digestate and a cogenerator, fed by the biogas coming from said biodigester and designed to produce energy and exhaust gases; said process comprising the following steps: - separating said digestate coming from said biodigester to provide a liquid fraction, optionally comprising solid residues, and a solid fraction; - simultaneously with and/or before and/or after said separating step, grinding said digestate and/or said solid fraction; - stripping ammonia of the liquid fraction obtained in said separating step by means of the exhaust gases coming from said cogenerator, to obtain a gas rich in ammonia and water vapour and a liquid fraction which is sterilised and depleted of ammonia designed to be used as liquid fertiliser; and - insufflating the solid fraction obtained in said separating step by means of the gas obtained in said stripping step to obtain a solid fraction enriched in ammonia and pasteurised, wherein said gas insufflated in said solid fraction is pre-mixed with air; said process being characterised in that said gas insufflated in said solid fraction and pre-mixed with air has a temperature of between 60°C and 80°C. - separating said digestate coming from said biodigester to provide a liquid fraction, optionally comprising solid residues, and a solid fraction; - simultaneously with and/or before and/or after said separating step, grinding said digestate and/or said solid fraction; - stripping ammonia of the liquid fraction obtained in said separating step by means of the exhaust gases coming from said cogenerator, to obtain a gas rich in ammonia and water vapour and a liquid fraction which is sterilised and depleted of ammonia designed to be used as liquid fertiliser; and - insufflating the solid fraction obtained in said separating step by means of the gas obtained in said stripping step to obtain a solid fraction enriched in ammonia and pasteurised, wherein said gas insufflated in said solid fraction is pre-mixed with air;
A process for the continuous "in situ" manufacturing of a pumpable explosive mixture, comprising the steps of: a) transporting to a place of manufacture the following components: (i) a non explosive or low sensitivity matrix product that comprises: - an aqueous solution of an oxidant salt or an aqueous suspension of an oxidant salt, - a thickening agent and, optionally, - a fuel and/or a sensitizer; (ii) a stabilizing agent of air bubbles; (iii) an inorganic oxidant in granular form or a mixture of an oxidant and a fuel, in granular form; and (iv) a liquid fuel; b) mixing said components (i), (ii), (iii) and (iv), in a auger conveyor mixer that allows the mixture of said components and capturing of atmospheric air in a controlled way, to obtain a pumpable explosive mixture with an oxygen balance of between -10% and +10%, with a density that is adjusted by controlling the amount of air that is incorporated into said explosive mixture by varying the supply of said components and/or the rotation speed of said mixer; and c) loading the pumpable explosive mixture directly into a shot hole. a) transporting to a place of manufacture the following components: (i) a non explosive or low sensitivity matrix product that comprises: - an aqueous solution of an oxidant salt or an aqueous suspension of an oxidant salt, - a thickening agent and, optionally, - a fuel and/or a sensitizer; (ii) a stabilizing agent of air bubbles; (iii) an inorganic oxidant in granular form or a mixture of an oxidant and a fuel, in granular form; and (iv) a liquid fuel; (i) a non explosive or low sensitivity matrix product that comprises: - an aqueous solution of an oxidant salt or an aqueous suspension of an oxidant salt, - a thickening agent and, optionally, - a fuel and/or a sensitizer; - an aqueous solution of an oxidant salt or an aqueous suspension of an oxidant salt, - a thickening agent and, optionally, - a fuel and/or a sensitizer; (ii) a stabilizing agent of air bubbles; (iii) an inorganic oxidant in granular form or a mixture of an oxidant and a fuel, in granular form; and (iv) a liquid fuel; b) mixing said components (i), (ii), (iii) and (iv), in a auger conveyor mixer that allows the mixture of said components and capturing of atmospheric air in a controlled way, to obtain a pumpable explosive mixture with an oxygen balance of between -10% and +10%, with a density that is adjusted by controlling the amount of air that is incorporated into said explosive mixture by varying the supply of said components and/or the rotation speed of said mixer; and c) loading the pumpable explosive mixture directly into a shot hole.
Method for improving the coefficient of friction of brake linings of a brake control system having friction brakes (3, 4) of a vehicle comprising a control unit, a measuring unit which supplies the control unit with measured values, and having a program for automatically actuating the brake control system as a function of a first measured parameter, and in that the program is ended as a function of a second measured parameter, characterized in that a characteristic curve is stored in the system, and in that the first parameter applies if measured actual values do not correspond to the characteristic curve, wherein the program automatically actuates the friction brake (3, 4) at intervals, and in that the second parameter applies, that is to say the program is terminated, if the actual value corresponds to the stored characteristic curve (set point value).
A pneumatic radial tire for agricultural vehicles that has a designated tire rotation direction, the tire comprising: a plurality of lugs, on a tread surface, extending from a tread width direction outer side towards a tread width direction inner side at an inclination in the designated tire rotation direction, the lugs being arranged alternately, in a tread circumferential direction, in tread width direction halves divided by a tire equatorial plane; and at least one protrusion on a wall at a trailing edge side of each lug, protruding from the wall in an opposite direction from the designated tire rotation direction, connecting to a groove bottom of a lug groove that defines the lug, and including an upper face orthogonal to a tire radial direction, wherein a point P is a tread width direction innermost point of the wall at the trailing edge side of a first lug among the plurality of lugs, a point Q is located along a periphery of the wall at the trailing edge side of the first lug away from the point P by 1/3 of a peripheral length of the wall, and a line M connects the point P and the point Q, the protrusion of a second lug that is positioned in a tread width direction half on an opposite side from the first lug and is adjacent to the first lug in the designated tire rotation direction is positioned on the tread width direction inner side of the line M, and 0.3 ≤ h/H ≤ 0.7, where H (mm) is a height of the lug, and h (mm) is a height from an upper face of the lug to the upper face of the protrusion. a plurality of lugs, on a tread surface, extending from a tread width direction outer side towards a tread width direction inner side at an inclination in the designated tire rotation direction, the lugs being arranged alternately, in a tread circumferential direction, in tread width direction halves divided by a tire equatorial plane; and at least one protrusion on a wall at a trailing edge side of each lug, protruding from the wall in an opposite direction from the designated tire rotation direction, connecting to a groove bottom of a lug groove that defines the lug, and including an upper face orthogonal to a tire radial direction, wherein a point P is a tread width direction innermost point of the wall at the trailing edge side of a first lug among the plurality of lugs, a point Q is located along a periphery of the wall at the trailing edge side of the first lug away from the point P by 1/3 of a peripheral length of the wall, and a line M connects the point P and the point Q, the protrusion of a second lug that is positioned in a tread width direction half on an opposite side from the first lug and is adjacent to the first lug in the designated tire rotation direction is positioned on the tread width direction inner side of the line M, and 0.3 ≤ h/H ≤ 0.7, where H (mm) is a height of the lug, and h (mm) is a height from an upper face of the lug to the upper face of the protrusion.
Dishwasher, in particular household dishwasher, with a dishwasher interior which may contain items to be washed and with a monitoring facility, in particular control and/or monitoring facility for setting, in particular controlling and/or regulating, partial program steps of a wash cycle, such as pre-rinsing, cleaning, intermediate rinsing, rinse-aiding and drying, characterised in that the dishwasher has a hot air sterilisation unit, which comprises a drying device having reversibly dehydratable drying means, wherein the drying device is set up to remove moisture from the air in the dishwasher interior, and wherein by means of the hot air sterilisation unit, hot and dry air can be introduced into the dishwasher interior to sterilise the items to be washed arranged in the dishwasher interior, wherein by means of the control device, the wash cycle can be carried out in an energy-saving first operating mode without sterilisation or in an energy-intensive second operating mode with the sterilisation of the items to be washed.
A cell culture system comprising: a fluidic device having a fluid channel connected to a fluid source (32, 34), the fluid source supplying fluid to the fluid channel; a membrane positioned within the channel between membrane support elements (22, 24), at least a portion of the membrane being flexible; a membrane strain mechanism coupled to the membrane support elements capable of moving the membrane support elements and causing the membrane to stretch along at least one dimension of the membrane; at least one layer of intestinal epithelial cells comprising villi structures attached to at least one surface of the membrane; and wherein the shear stress on the fluid flowing through the fluid channel is less than 1.0 dyne/cm 2. a fluidic device having a fluid channel connected to a fluid source (32, 34), the fluid source supplying fluid to the fluid channel; a membrane positioned within the channel between membrane support elements (22, 24), at least a portion of the membrane being flexible; a membrane strain mechanism coupled to the membrane support elements capable of moving the membrane support elements and causing the membrane to stretch along at least one dimension of the membrane; at least one layer of intestinal epithelial cells comprising villi structures attached to at least one surface of the membrane; and wherein the shear stress on the fluid flowing through the fluid channel is less than 1.0 dyne/cm 2.
Collecting vessel for catching particles for a centrifugal separator, having the following features: a housing member that at least partially bounds a collection volume of the collecting vessel; and an opening in the housing member, which is formed and arranged such that because of a vortex prevailing in a separation chamber of the centrifugal separator, particles can pass through the opening from the separation chamber into the collection volume of the collecting vessel, wherein the opening is arranged offset to a centre of the collecting vessel, wherein the housing member comprises a lead structure which extends at least partially into a projection of the opening along a surface normal of the opening, wherein the lead structure is designed such that in the event of a gas flow entering perpendicularly through the opening it at least partially effects a flow component parallel to the opening, characterised in that the lead structure is arranged between the centre of the collecting vessel and the opening and is designed such that the flow component effected by the lead structure is directed towards the smaller vessel side of the collecting vessel. a housing member that at least partially bounds a collection volume of the collecting vessel; and an opening in the housing member, which is formed and arranged such that because of a vortex prevailing in a separation chamber of the centrifugal separator, particles can pass through the opening from the separation chamber into the collection volume of the collecting vessel, wherein the opening is arranged offset to a centre of the collecting vessel, wherein the housing member comprises a lead structure which extends at least partially into a projection of the opening along a surface normal of the opening, wherein the lead structure is designed such that in the event of a gas flow entering perpendicularly through the opening it at least partially effects a flow component parallel to the opening, characterised in that the lead structure is arranged between the centre of the collecting vessel and the opening and is designed such that the flow component effected by the lead structure is directed towards the smaller vessel side of the collecting vessel.
A method for balancing segmented rotor blades for a wind turbine, the method comprising: determining a weight for each of a plurality of blade segments, each blade segment extending between a first end and a second end and being configured to form a common spanwise section of a segmented rotor blade between the first and second ends; determining an initial static moment for each blade segment based on the weight of the blade segment, the initial static moment of at least one of the blade segments differing from the initial static moments of the remainder of the plurality of blade segments; and adding mass to each of the plurality of blade segments to increase the initial static moment for each blade segment to a predetermined static moment, the predetermined static moment being greater than each of the initial static moments of the plurality of blade segments; wherein the predetermined static moment corresponds to a static moment that is equal to or greater than a maximum static moment for the plurality of blade segments based on allowable manufacturing variations. determining a weight for each of a plurality of blade segments, each blade segment extending between a first end and a second end and being configured to form a common spanwise section of a segmented rotor blade between the first and second ends; determining an initial static moment for each blade segment based on the weight of the blade segment, the initial static moment of at least one of the blade segments differing from the initial static moments of the remainder of the plurality of blade segments; and adding mass to each of the plurality of blade segments to increase the initial static moment for each blade segment to a predetermined static moment, the predetermined static moment being greater than each of the initial static moments of the plurality of blade segments; wherein the predetermined static moment corresponds to a static moment that is equal to or greater than a maximum static moment for the plurality of blade segments based on allowable manufacturing variations.
A compound comprising a 4-amino-1,8-naphthalimide for use in a method of restoring vascular compliance in a diseased blood vessel, wherein: a delivery system is inserted into the blood vessel; a bolus of the composition comprising the 4-amino-1,8-naphthalimide compound is applied to the blood vessel; and the composition is activated with a sufficient amount of an activating agent to restore the vascular compliance of the blood vessel, wherein the 4-amino-1,8-naphthalimide compound is obtainable using the synthesis method of Example 1 or Example 2. a delivery system is inserted into the blood vessel; a bolus of the composition comprising the 4-amino-1,8-naphthalimide compound is applied to the blood vessel; and the composition is activated with a sufficient amount of an activating agent to restore the vascular compliance of the blood vessel, wherein the 4-amino-1,8-naphthalimide compound is obtainable using the synthesis method of Example 1 or Example 2.
A drive train cooling arrangement for motor vehicles, having a first cooling circuit and a second cooling circuit (44, 45) and having a pump arrangement, by means of which coolant can be fed to the first and the second cooling circuit, wherein the pump arrangement has a bidirectional pump, which has a first pump port and a second pump port and which can be driven by a pump electric motor, wherein the first pump port is connected to the first cooling circuit, wherein the second pump port is connected to the second cooling circuit (44, 45) and wherein a coolant volume flow (74; 86, 88) which is provided for the first and/or the second cooling circuit can be adjusted by changing the rotational speed of the pump electric motor, wherein the first and the second cooling circuit are connected to one another via an orifice arrangement, which is arranged such that, when the pump electric motor is driven in a first direction, in which the first pump port is designed as a pressure port and a coolant volume flow is made available to the first cooling circuit, the second cooling circuit (44, 45) is also supplied, via the orifice arrangement, with a certain coolant volume flow, characterized in that the orifice arrangement has two parallel branches (56, 58), wherein a check valve is arranged in at least one of the branches and wherein an orifice (60, 62) is arranged in at least one of the branches.
An adhesive composition comprising a polyisobutylene polymer component having an average weight average molecular weight ranging from 15,000 g/mole to 300,000 g/mole based on Gel Permeation Chromatography utilizing polystyrene standards; a styrene-isobutylene block copolymer component; and wherein the weight ratio of styrene-isobutylene block copolymer to polyisobutylene polymer of the adhesive composition is greater than 2.2:1.
A method of controlling a laser-based lighting system in a vehicle, said lighting system comprising: a projection system comprising a laser light source and a scanning mirror arrangement; a sensor for capturing a first image; an image generation unit for generating a second image; a projection system controller to control the operation of the projection system; and a wavelength conversion element to project the second image; the method comprising: capturing, by the sensor, the first image; generating, by the image generation unit, the second image based on at least part of the first image received from the sensor, wherein the generated second image comprises information representing at least one feature region in the first image; streaming the second image to the projection system controller as an image pixel stream; controlling, by the projection system controller, the operation of the laser light source and the scanning mirror arrangement based on the second image, wherein the laser light source radiates laser light and wherein the scanning mirror arrangement receives the light radiated by the laser light source and rotates around two orthogonal axes to reflect the received light to the wavelength conversion element to project the second image; and adapting a speed of the image pixel stream based on a speed of the vehicle obtained from a driving parameter detector. a projection system comprising a laser light source and a scanning mirror arrangement; a sensor for capturing a first image; an image generation unit for generating a second image; a projection system controller to control the operation of the projection system; and a wavelength conversion element to project the second image; capturing, by the sensor, the first image; generating, by the image generation unit, the second image based on at least part of the first image received from the sensor, wherein the generated second image comprises information representing at least one feature region in the first image; streaming the second image to the projection system controller as an image pixel stream; controlling, by the projection system controller, the operation of the laser light source and the scanning mirror arrangement based on the second image, wherein the laser light source radiates laser light and wherein the scanning mirror arrangement receives the light radiated by the laser light source and rotates around two orthogonal axes to reflect the received light to the wavelength conversion element to project the second image; and adapting a speed of the image pixel stream based on a speed of the vehicle obtained from a driving parameter detector.
A reception apparatus comprising: a reception unit (212-1, 212-2,..., 212-N) for receiving a plurality of divided streams acquired by distributing baseband, BB, frames of a BB stream, which is a stream of BB frames, to a plurality of data slices; and a reconstruction unit (215, 216) for selecting the BB frames for processing in a selection order based on packet start position information of a BB frame and constructing packets thereby to reconstruct the original BB stream from the plurality of the divided streams, wherein the reconstruction unit is configured, when an error occurs during transmission such that an order of the BB frames cannot be specified, to estimate the BB frame to be selected for processing and to specify the packet start position information of BB frames in an influence period as the packet start position information of a BB frame immediately before the influence period, wherein the packet start position information indicates the start position of a transport stream packet of a BB frame and the influence period indicates a period of BB frames during which an order of rearrangement of the BB frames can be wrong. a reception unit (212-1, 212-2,..., 212-N) for receiving a plurality of divided streams acquired by distributing baseband, BB, frames of a BB stream, which is a stream of BB frames, to a plurality of data slices; and a reconstruction unit (215, 216) for selecting the BB frames for processing in a selection order based on packet start position information of a BB frame and constructing packets thereby to reconstruct the original BB stream from the plurality of the divided streams, wherein the reconstruction unit is configured, when an error occurs during transmission such that an order of the BB frames cannot be specified, to estimate the BB frame to be selected for processing and to specify the packet start position information of BB frames in an influence period as the packet start position information of a BB frame immediately before the influence period, wherein the packet start position information indicates the start position of a transport stream packet of a BB frame and the influence period indicates a period of BB frames during which an order of rearrangement of the BB frames can be wrong.