mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: manufacturing a mineral wool insulation panel for a household appliance or electrical appliance, the mineral wool insulation panel comprising needled mineral wool fibres consisting of glass wool fibres and/or stone wool fibres and graphite particles dispersed between the mineral wool fibres, the method of manufacturing comprising: a) applying a needling aid to mineral wool fibres; and b) subsequently needling the mineral wool fibres to provide a mineral wool panel; wherein the mineral wool insulating panel comprises a quantity of binder of less than 1%wt as determined by LOI, wherein the needling aid comprises graphite. manufacturing a mineral wool insulation panel for a household appliance or electrical appliance, the mineral wool insulation panel comprising needled mineral wool fibres consisting of glass wool fibres and/or stone wool fibres and graphite particles dispersed between the mineral wool fibres, the method of manufacturing comprising: a) applying a needling aid to mineral wool fibres; and b) subsequently needling the mineral wool fibres to provide a mineral wool panel; a) applying a needling aid to mineral wool fibres; and b) subsequently needling the mineral wool fibres to provide a mineral wool panel; wherein the mineral wool insulating panel comprises a quantity of binder of less than 1%wt as determined by LOI, wherein the needling aid comprises graphite.
Method for producing a stator with a stator body and at least one coil attached thereto, which is formed by an automated insertion of coil wire with a plurality of windings into a coil space of the stator, wherein the coil space comprises a number of coil grooves, which are defined by pole horns and a stator wall of the stator, wherein at least one end portion (22a, 22b) of the coil wire is provided with a sleeve element or a tube element as a connecting wire in such a way that the sleeve element or the tube element projects into the winding structure of the coil, characterised by the process steps: - insertion of at least one spacer element into the coil space of the stator in such a way that, during the automated insertion of the coil wire into the coil space, a cavity delimited by the at least one spacer element is produced in the winding structure of the coil in the region of at least one end section (22a, 22b) of the coil wire, - automatic insertion of the bobbin wire into the bobbin space, - removing the at least one placeholder element from the winding structure of the coil, - applying the tubular element or the sleeve element to the at least one end portion (22a, 22b) of the coil wire and inserting the tubular element or the sleeve element into the remaining cavity in the winding structure of the coil, and - fixing the hose element or the sleeve element in the winding structure of the coil. - insertion of at least one spacer element into the coil space of the stator in such a way that, during the automated insertion of the coil wire into the coil space, a cavity delimited by the at least one spacer element is produced in the winding structure of the coil in the region of at least one end section (22a, 22b) of the coil wire, - automatic insertion of the bobbin wire into the bobbin space, - removing the at least one placeholder element from the winding structure of the coil, - applying the tubular element or the sleeve element to the at least one end portion (22a, 22b) of the coil wire and inserting the tubular element or the sleeve element into the remaining cavity in the winding structure of the coil, and - fixing the hose element or the sleeve element in the winding structure of the coil.
Closure device for laterally surrounding a usable surface, which can be covered with a floor cover, of a balcony or a patio, wherein the closure device has a closure profile with an anchoring limb that can be placed on the usable surface and with a drainage gutter which is formed on or can be fixed to the closure profile such that water flowing over the usable surface can be collected in the drainage gutter and can be discharged, wherein the drainage gutter and the closure profile are connected to one another via at least one rod-shaped securing element, and wherein a securing element seat and a receiving portion (20, 42) are formed on the drainage gutter and on the closure profile such that the securing element (15, 40), which is secured in the securing element seat and in the receiving portion in a form-fitting manner, produces a height-adjustable fixation of the drainage gutter to the closure profile, characterised in that the closure profile has a guide limb, which protrudes from the anchoring limb and is oriented parallel to the orientation of the rod-shaped securing element (15, 40) connecting the closure profile to the drainage gutter, and against which the drainage gutter rests and is guided.
A method of processing eggs at a poultry hatchery, the method comprising: setting a production quantity of avian eggs in a setter incubator, the eggs being maintained in a plurality of egg flats; removing the avian eggs from the setter incubator on a predetermined day of incubation, such predetermined day being during about day nine to day twelve of incubation; subsequent to removing the avian eggs from the setter incubator, subjecting the avian eggs to an egg detection system on the predetermined day to determine which of the avian eggs are viable and non-viable; characterised in that the method further comprises the steps of: removing the non-viable avian eggs from the egg flats on the predetermined day; and incubating through hatch the viable avian eggs remaining in the egg flats post-inspection by the egg detection system. setting a production quantity of avian eggs in a setter incubator, the eggs being maintained in a plurality of egg flats; removing the avian eggs from the setter incubator on a predetermined day of incubation, such predetermined day being during about day nine to day twelve of incubation; subsequent to removing the avian eggs from the setter incubator, subjecting the avian eggs to an egg detection system on the predetermined day to determine which of the avian eggs are viable and non-viable; characterised in that the method further comprises the steps of: removing the non-viable avian eggs from the egg flats on the predetermined day; and incubating through hatch the viable avian eggs remaining in the egg flats post-inspection by the egg detection system. removing the non-viable avian eggs from the egg flats on the predetermined day; and incubating through hatch the viable avian eggs remaining in the egg flats post-inspection by the egg detection system.
Relative pressure transmitter with a sensor block; a relative pressure sensor incorporated into the sensor block; a housing which partially encloses the sensor block; an insert arranged in the housing, wherein said insert has a floor, wherein a first opening is provided in the floor; an annular, circumferential gap between the housing and the insert, wherein the gap is limited by two seals clamped between the housing and the insert; and a reference pressure line, which runs into the insert and which is connected to the relative pressure sensor via the first opening in the floor and which ends at a second opening in an outer wall of the insert and which is connected via the second opening to the gap, wherein the housing has a continuous bore hole by means of which the gap is in connection with an environment of the relative pressure transmitter, wherein the insert consists of a moisture-resistant material, particularly a plastic, wherein an electronic circuit is arranged inside the insert, wherein to protect the electronic circuit inside the insert an electrically conductive layer is provided that encompasses an interior space of the insert.
A process for the fermentative production of succinic acid or a salt or derivative thereof, which process comprises the steps of: a. incubating a bacterial strain in a medium containing at least glycerol as assimilable carbon source and cultivating said strain under conditions favouring the formation of the desired succinic acid; and b. obtaining said succinic acid or salt or derivative thereof from the medium, wherein said bacterial strain is a bacterial strain of the family of Pasteurellaceae, capable of utilizing glycerol as a carbon source for the fermentative production of succinic acid, wherein said strain contains a mutated gene coding for a pyruvate-formate-lyase enzyme with decreased or no detectable activity, which method comprises the fermentative production of succinic acid and controlling the pH with NH 4 HCO 3, (NH 4) 2 CO 3, NaOH, Na 2 CO 3, NaHCO 3, KOH, K 2 CO 3, KHCO 3, Mg 2, MgH(CO 3) 2, Ca 2, CaCO 3, Ca(HCO 3) 2, CaO, CH 6 N 2 O 2, C 2 H 7 N and/or mixtures thereof. a. incubating a bacterial strain in a medium containing at least glycerol as assimilable carbon source and cultivating said strain under conditions favouring the formation of the desired succinic acid; and b. obtaining said succinic acid or salt or derivative thereof from the medium, wherein said bacterial strain is a bacterial strain of the family of Pasteurellaceae, capable of utilizing glycerol as a carbon source for the fermentative production of succinic acid, wherein said strain contains a mutated gene coding for a pyruvate-formate-lyase enzyme with decreased or no detectable activity,
A cartridge (100, 300, 400) for an aerosol-generating device, the cartridge comprising: an aerosol-forming substrate; an electric heater (120, 320, 420) for heating the aerosol-forming substrate; and a resonant circuit (155, 355, 455); wherein the resonant circuit is configured to resonate at a predetermined resonant frequency; wherein the predetermined resonant frequency is associated with an identity of the cartridge (100, 300, 400); and wherein the resonant circuit (155, 355, 455) is connected in parallel with the electric heater (120, 320, 420). an aerosol-forming substrate; an electric heater (120, 320, 420) for heating the aerosol-forming substrate; and a resonant circuit (155, 355, 455); wherein the resonant circuit is configured to resonate at a predetermined resonant frequency; wherein the predetermined resonant frequency is associated with an identity of the cartridge (100, 300, 400); and wherein the resonant circuit (155, 355, 455) is connected in parallel with the electric heater (120, 320, 420).
A modular optical fibre distribution box operable to receive a fibre from a fibre optic cable and distribute said fibre to a user, said modular optical fibre distribution box comprising a plurality of stackable layers (1, 20), said plurality of stackable layers including a first layer configured to receive said fibre optic cable at an inlet port, and a second layer configured to distribute said fibre to said user, said second layer being operable to engage with said first layer in a plurality of orientations, and having an outlet port on at least one side, said outlet port being arranged to direct said fibre towards a user, in different lateral directions about a stacking axis of said plurality of stackable layers (1, 20) according to said orientation of engagement between said first and second layers (1, 20), wherein said first layer including an interior guide channel operable to guide said fibre optic cable from said inlet port straight to a first outlet port or operable to guide said fibre optic cable through a 180 degree turn from said inlet port to a second outlet port.
A method for quantitative monitoring of bacterial endospores in an aqueous environment of a paper or board mill, the method comprising at least the following steps: - obtaining at least a first aqueous sample and at least a second aqueous sample originating from the industrial aqueous environment, - destroying bacteria in vegetative form in the first sample by a suitable treatment, preferably by heating the first sample to a desired temperature, - adding intercalating agent to the treated first sample and allowing it to interact with the destroyed bacteria, - determining the endospore level in the first sample by using quantitative polymerase chain reaction (qPCR), - determining the amount of bacterial cells in vegetative form in the second sample, and - comparing the determined endospore level from the first sample to the determined amount of vegetative bacterial cells in the second sample and using the obtained information for adjustment of biocide feeding regime for endospore control in paper or board making process. - obtaining at least a first aqueous sample and at least a second aqueous sample originating from the industrial aqueous environment, - destroying bacteria in vegetative form in the first sample by a suitable treatment, preferably by heating the first sample to a desired temperature, - adding intercalating agent to the treated first sample and allowing it to interact with the destroyed bacteria, - determining the endospore level in the first sample by using quantitative polymerase chain reaction (qPCR), - determining the amount of bacterial cells in vegetative form in the second sample, and - comparing the determined endospore level from the first sample to the determined amount of vegetative bacterial cells in the second sample and using the obtained information for adjustment of biocide feeding regime for endospore control in paper or board making process.
A horizontal-axis wind turbine comprising: a column a chassis mounted to be able to pivot at the top of the column: a propeller shaft horizontally provided in the chassis; a rearward disposed propeller attached to the propeller shaft and comprising a plurality of propeller vanes each of which comprises a tilted part tilted forward and a base part, a proximal end boundary line between the tilted part and the base part having a maximum chord length of each of the plurality of propeller vanes, the proximal end boundary line being an arc that follows the rotational track during rotation of the propeller vanes; a plurality of support vanes provided radially on the lateral sides of the chassis; and a plurality of directional rudders each of which is provided to a distal end of each of the support vanes to at least partially enclose the propeller. a column a chassis mounted to be able to pivot at the top of the column: a propeller shaft horizontally provided in the chassis; a rearward disposed propeller attached to the propeller shaft and comprising a plurality of propeller vanes each of which comprises a tilted part tilted forward and a base part, a proximal end boundary line between the tilted part and the base part having a maximum chord length of each of the plurality of propeller vanes, the proximal end boundary line being an arc that follows the rotational track during rotation of the propeller vanes; a plurality of support vanes provided radially on the lateral sides of the chassis; and a plurality of directional rudders each of which is provided to a distal end of each of the support vanes to at least partially enclose the propeller. a propeller shaft horizontally provided in the chassis; a rearward disposed propeller attached to the propeller shaft and comprising a plurality of propeller vanes each of which comprises a tilted part tilted forward and a base part, a proximal end boundary line between the tilted part and the base part having a maximum chord length of each of the plurality of propeller vanes, the proximal end boundary line being an arc that follows the rotational track during rotation of the propeller vanes; a plurality of support vanes provided radially on the lateral sides of the chassis; and a plurality of directional rudders each of which is provided to a distal end of each of the support vanes to at least partially enclose the propeller.
Modular and scalable piece of furniture comprising, at least between two low and high boards each having two front and rear edges, at least one module (3; 4) with at least one side wall (14, 15), provided with two low and high edges, and a rear bottom wall having two low and high edges and assembled to the side wall (14, 15), the boards (1, 2) and the module (3; 4) being arranged to allow the module (3; 4) to slide and be guided along the boards (1, 2), in such a way as to place the at least one module where it is desired after a first installation of the said at least module, without touching its structure, making the piece of furniture modular and scalable, piece of furniture such that - the boards (1, 2) have two parallel planar surfaces (7, 8), - at least one of the edges (5, 6) of each board (1, 2) comprises a longitudinal rib (11; 12) projecting perpendicularly to its planar surfaces (7, 8), and - the module (3; 4) is indented (24, 25) longitudinally and perpendicularly to its side wall (14, 15) in order to be able to fit onto the ribs (11; 12) of the boards (1, 2) and thus slide along these ribs (11; 12). - the boards (1, 2) have two parallel planar surfaces (7, 8), - at least one of the edges (5, 6) of each board (1, 2) comprises a longitudinal rib (11; 12) projecting perpendicularly to its planar surfaces (7, 8), and - the module (3; 4) is indented (24, 25) longitudinally and perpendicularly to its side wall (14, 15) in order to be able to fit onto the ribs (11; 12) of the boards (1, 2) and thus slide along these ribs (11; 12).
Tampon applicator comprising a barrel for receiving a tampon and a plunger for ejecting the tampon from the barrel, the barrel having an insertion end and a plunger end and in the area of its plunger end a guide section for the plunger, the plunger having a first enlarged end for contact with the tampon and a second enlarged end for contact with a finger, and the internal diameter of the guide section of the barrel being smaller than the external diameter of the first and second ends (12, 13) of the plunger, the guide section being formed by a number of radially resilient elastic fins ( 14'; 14"; 14′′′) that are distributed on the inner circumference of the barrel, wherein the elastic fins extend from the inner circumference of the barrel in the longitudinal direction of the barrel and are inclined toward the longitudinal axis of the barrel, and characterized in that the elastic fins (14'; 14"; 14′′′) have respective first sections (21; 23; 26) extending, as seen in cross-section, from the inner circumference of the barrel in the direction of a chord, followed by second sections (22; 25; 27) extending substantially parallelly to the inner circumference of the barrel.
An unmanned wellhead platform comprising a jacket designed and adapted to be supported on the seabed and projecting above the sea level and a topside structure installed on top of said jacket, wherein said topside is designed as a standardized base concept tailored for repetitive future topside constructions, characterised in that each topside construction is adapted to the number of wells to be developed, said topside construction being made up by a number of different but standardized sections, each standardized section being dedicated for a particular and predetermined purpose and location in said topside construction, said number of standardized sections adopt different sizes and configurations, though grouped in sets of sections having equal dimension.
A method of making a magnet, the method comprising: a) providing a magnetizable composition comprising at least one thermoplastic polymer material and magnetizable particles; b) heating the magnetic composition to a temperature at which the magnetic composition is in a flowable state; c) providing the magnetic composition to a cavity of a rotating cylinder through a stationary flat nozzle, the cavity of the rotating cylinder is defined by the cylinder wall, the cylinder wall of the rotating cylinder comprising a plurality of openings therethrough; d) providing a substrate in the form of a moving web or sheet; and e) contacting the rotating cylinder with the substrate; wherein the flat nozzle forces the magnetic composition through the plurality of openings in the rotating cylinder and the magnetic composition adheres to the substrate in the shape of each of the plurality of openings. a) providing a magnetizable composition comprising at least one thermoplastic polymer material and magnetizable particles; b) heating the magnetic composition to a temperature at which the magnetic composition is in a flowable state; c) providing the magnetic composition to a cavity of a rotating cylinder through a stationary flat nozzle, the cavity of the rotating cylinder is defined by the cylinder wall, the cylinder wall of the rotating cylinder comprising a plurality of openings therethrough; d) providing a substrate in the form of a moving web or sheet; and e) contacting the rotating cylinder with the substrate;
A method performed by a context aware server (350; 440; 450; 540; 550; 650; 740; 750; 840; 850) comprising: receiving a message from a context aware agent (460; 760; 860) on a user device; establishing, based on the message, a context for an application or a service employed by the user device, the context comprising at least one aspect, an aspect being a logical application level abstraction relating to one or more underlying presence or location information elements; associating a trigger with at least one aspect to define a monitored aspect, wherein the trigger defines a network initiated encapsulation of actions to be performed on a firing of the trigger; determining a value (912; 1012; 1112; 1340) of the monitored aspect by processing information from a presence server (330; 430; 530; 630); detecting a change to the monitored aspect to effect a firing of the trigger; and on firing of the trigger, performing the actions. receiving a message from a context aware agent (460; 760; 860) on a user device; establishing, based on the message, a context for an application or a service employed by the user device, the context comprising at least one aspect, an aspect being a logical application level abstraction relating to one or more underlying presence or location information elements; associating a trigger with at least one aspect to define a monitored aspect, wherein the trigger defines a network initiated encapsulation of actions to be performed on a firing of the trigger; determining a value (912; 1012; 1112; 1340) of the monitored aspect by processing information from a presence server (330; 430; 530; 630); detecting a change to the monitored aspect to effect a firing of the trigger; and on firing of the trigger, performing the actions.