mhurhangee/ep-ind-claims huggingface dataset:
SYSTEM FOR CONTINUOUS AND INDIVIDUALIZED TREATMENT FOR FABRICS FOR PAPER AND CELLULOSE MACHINES AND OTHERS, which includes equipment consisting of: - a principal water feed pipe connected to a lead line for fresh water connected to a tank for storing the fresh water, - a container for chemical products or enzymes and a container for shock products, from each container exits a respective feed pipe, wherein the two pipes are connected to a protection chamber, with a support structure and external indicator panel, wherein inside this protection chamber, two or more thermal injector pumps or heat exchangers with a high-pressure pumps working in parallel are housed, with outputs in pipelines leading the pressurized chemical solution to showers characterized in that - the principal water feed pipe is provided with filters and comprises a pressure maintenance pump at the exit of the tank, - it comprises a line connected to a principal pipe for steam feed, wherein the line is provided with a device for extracting condensate followed by a steam filter being further connected to the thermal injector or high pressure pumps, - the first feed pipe connected to the container for chemical products or enzymes goes through a dosing pump and a flow measuring device, - a mixing tank for lowering of pressure and temperature of the fluid exiting the protection chamber, and, - the said showers are tubular, provided with internal telescopic fit guides and with sliding internal cylinders, in which the spraying nozzles are attached. - a principal water feed pipe connected to a lead line for fresh water connected to a tank for storing the fresh water, - a container for chemical products or enzymes and a container for shock products, from each container exits a respective feed pipe, wherein the two pipes are connected to a protection chamber, with a support structure and external indicator panel, wherein inside this protection chamber, two or more thermal injector pumps or heat exchangers with a high-pressure pumps working in parallel are housed, with outputs in pipelines leading the pressurized chemical solution to showers characterized in that - the principal water feed pipe is provided with filters and comprises a pressure maintenance pump at the exit of the tank, - it comprises a line connected to a principal pipe for steam feed, wherein the line is provided with a device for extracting condensate followed by a steam filter being further connected to the thermal injector or high pressure pumps, - the first feed pipe connected to the container for chemical products or enzymes goes through a dosing pump and a flow measuring device, - a mixing tank for lowering of pressure and temperature of the fluid exiting the protection chamber, and, - the said showers are tubular, provided with internal telescopic fit guides and with sliding internal cylinders, in which the spraying nozzles are attached.
A labeled fatty acid derivative represented by formula or a salt thereof, wherein any one of R 1 to R 3 is 18 F, the other two are H, and Me is a methyl group.
A bioreactor, comprising: a culture tank; sparger means arranged in a lower part of the culture tank; a plurality of impellers (3a to 3d) being arranged in multiple stages in a vertical direction of the culture tank; and a controller for individually controlling rotational driving of the plurality of impellers; wherein the plurality of impellers have a larger mass transfer capacity coefficient K L a per unit number of revolutions in an impeller located at an upper stage than in an impeller located at a lower stage. a culture tank; sparger means arranged in a lower part of the culture tank; a plurality of impellers (3a to 3d) being arranged in multiple stages in a vertical direction of the culture tank; and a controller for individually controlling rotational driving of the plurality of impellers; wherein the plurality of impellers have a larger mass transfer capacity coefficient K L a per unit number of revolutions in an impeller located at an upper stage than in an impeller located at a lower stage.
Process for the preparation of an oxysulfide and fluorinated derivative in the form of a salt of formula: Ea-SOO - Q + comprising the operation in which an ionic liquid compound of formula in the liquid state: Ea-COO - Q + - Ea representing a fluorine atom or a group having from 1 to 10 carbon atoms selected from fluoroalkyls, perfluoroalkyls and fluoroalkenyls; and - Q + representing an onium cation, is brought together with a sulfur oxide, said ionic liquid compound of formula representing at least 50% by weight of the initial liquid reaction medium. - Ea representing a fluorine atom or a group having from 1 to 10 carbon atoms selected from fluoroalkyls, perfluoroalkyls and fluoroalkenyls; and - Q + representing an onium cation,
A method for assigning network addresses in a network which includes a plurality of servers assigning network addresses to a plurality of clients, wherein messages are exchanged via Dynamic Host Configuration Protocol DHCP between the servers and the clients, the method comprising the steps, at the level of a server, of receiving a broadcast DHCPDISCOVER message from a client asking for assigning a network address, sending out a DHCPOFFER message from the server notifying that it can assign a network address to the client, the server stopping responding to the following predetermined number of DHCPDISCOVER messages broadcasted over the network and counted by a counter at the server, after the server receives a DHCPREQUEST message from the client showing that the assigned network address is chosen by the client, otherwise the server responding to the following DHCPDISCOVER messages.
A soil imaging system, comprising: at least one work layer sensor disposed on an agricultural implement traveling in a forward direction of travel while performing a soil working operation, the at least one work layer sensor comprising a work layer sensor disposed at or behind the agricultural implement to generate an electromagnetic field through a soil layer of interest as or after the soil layer has been worked by the soil working operation, and to generate a work layer image of the soil layer of interest based on the generated electromagnetic field through the soil layer of interest as the soil is or after the soil has been worked by the soil working operation; a monitor in communication with the at least one work layer sensor and adapted to display the work layer image, characterized in that the at least one work layer sensor is further adapted to generate a reference image based on an electromagnetic field generated through the undisturbed soil, and in that the monitor is adapted to compare at least one characteristic of the reference image with at least one characteristic of the work layer image, and to generate a characterized image of the soil layer of interest. at least one work layer sensor disposed on an agricultural implement traveling in a forward direction of travel while performing a soil working operation, the at least one work layer sensor comprising a work layer sensor disposed at or behind the agricultural implement to generate an electromagnetic field through a soil layer of interest as or after the soil layer has been worked by the soil working operation, and to generate a work layer image of the soil layer of interest based on the generated electromagnetic field through the soil layer of interest as the soil is or after the soil has been worked by the soil working operation; a monitor in communication with the at least one work layer sensor and adapted to display the work layer image, characterized in that the at least one work layer sensor is further adapted to generate a reference image based on an electromagnetic field generated through the undisturbed soil, and in that the monitor is adapted to compare at least one characteristic of the reference image with at least one characteristic of the work layer image, and to generate a characterized image of the soil layer of interest.
Process for converting γ-AlOOH· x H 2 O with x in the range of 0.1 ≤ x ≤ 0.5 into nanoparticulate alpha alumina having particle sizes in the range of 1 to 50 nm and a high specific BET surface area of at least 90 m 2 /g, characterized by subjecting said γ-AlOOH· x H 2 O to a milling process in a ball mill with a milling jar and balls in a weight ratio of balls to said γ-AlOOH· x H 2 O of 1 to 200, preferably 5 to 100, in a temperature range below the conversion temperature of nanocrystalline γ-AlOOH· x H 2 O to γ-Al 2 O 3, in a temperature range of 10° to 200°C and for a period of time of 1 to 20, preferably 1 to 10 hours.
A method, performed by one or more processors, of adjusting a three-dimensional representation of an object to be manufactured in an additive manufacturing process, the method comprising: determining a processing operation to be applied to the object; and adjusting the three-dimensional representation of the object based on adjustment parameters associated with the processing operation; wherein adjusting the three-dimensional representation of the object comprises applying a thinning operation to the three-dimensional representation of the object or wherein adjusting the three-dimensional representation of the object comprises applying a surface texture to a surface of the three-dimensional representation of the object, or wherein adjusting the three-dimensional representation of the object is based on an operation to apply a coating, plating, paint or dye to the object. determining a processing operation to be applied to the object; and adjusting the three-dimensional representation of the object based on adjustment parameters associated with the processing operation; wherein adjusting the three-dimensional representation of the object comprises applying a thinning operation to the three-dimensional representation of the object or wherein adjusting the three-dimensional representation of the object comprises applying a surface texture to a surface of the three-dimensional representation of the object, or wherein adjusting the three-dimensional representation of the object is based on an operation to apply a coating, plating, paint or dye to the object.
A thermoelectric element comprising: a first metal substrate; a first resin layer arranged on the first metal substrate; a first electrode arranged on the first resin layer; a thermoelectric leg(130, 140) arranged on the first electrode; a second electrode arranged on the thermoelectric leg(130, 140); a second resin layer arranged on the second electrode; and a second metal substrate arranged on the second resin layer, characterized in that an upper surface of the first resin layer includes a first electrode arrangement surface on which the first electrode is disposed, and a first concave surface disposed around the first electrode arrangement surface and toward the first metal substrate, wherein a lower surface of the second resin layer includes a second electrode arrangement surface on which the second electrode is disposed, and a second concave surface disposed around the second electrode arrangement surface and toward the second metal substrate, wherein a partial region of the first concave surface and a partial region of the second concave surface are vertically overlapped. a first metal substrate; a first resin layer arranged on the first metal substrate; a first electrode arranged on the first resin layer; a thermoelectric leg(130, 140) arranged on the first electrode; a second electrode arranged on the thermoelectric leg(130, 140); a second resin layer arranged on the second electrode; and a second metal substrate arranged on the second resin layer, characterized in that an upper surface of the first resin layer includes a first electrode arrangement surface on which the first electrode is disposed, and a first concave surface disposed around the first electrode arrangement surface and toward the first metal substrate, wherein a lower surface of the second resin layer includes a second electrode arrangement surface on which the second electrode is disposed, and a second concave surface disposed around the second electrode arrangement surface and toward the second metal substrate, wherein a partial region of the first concave surface and a partial region of the second concave surface are vertically overlapped.
A method for producing a plant with increased seed yield relative to a suitable control plant, the method comprising transformation of a plant with: a) a polynucleotide encoding a polypeptide with the amino acid sequence of SEQ ID NO:1 or a variant of the polypeptide with at least 70% sequence identity to a polypeptide with the amino acid sequence of SEQ ID NO: 1, wherein the variant is capable of increasing seed yield in a plant; or b) a polynucleotide comprising a complement of the polynucleotide of a). a) a polynucleotide encoding a polypeptide with the amino acid sequence of SEQ ID NO:1 or a variant of the polypeptide with at least 70% sequence identity to a polypeptide with the amino acid sequence of SEQ ID NO: 1, wherein the variant is capable of increasing seed yield in a plant; or b) a polynucleotide comprising a complement of the polynucleotide of a).
Vibration-ram arrangement for introducing a material to be rammed into a ground, wherein the vibration-ram arrangement comprises: - at least one hydraulic apparatus (2a, 2b) for generating a hydraulic pressure, wherein the hydraulic apparatus (2a, 2b) has an internal-combustion engine and a hydraulic pump that is drivable by the internal-combustion engine, - at least one exciter arrangement (6a, 6b) which is configured so as to be spatially separate from the hydraulic apparatus (2a, 2b) and which by way of at least one hydraulic line (5a, 5b, 5c, 5d) is connected to the hydraulic apparatus (2a, 2b), wherein the exciter arrangement (6a, 6b) has at least one hydraulic motor and at least one rotatably mounted unbalanced mass, wherein a hydraulic fluid is guided in a circuit that comprises the hydraulic apparatus, the hydraulic line (5a, 5b, 5c, 5d), and the hydraulic motor, and wherein the unbalanced mass is drivable by means of the hydraulic motor so as to generate vibration movements of the exciter arrangement (6a, 6b), characterized in that the vibration-ram arrangement has a support device on which at least the hydraulic apparatus (2a, 2b) and the exciter arrangement (6a, 6b) that is connected to the hydraulic apparatus (2a, 2b) are disposed, and in that the support device comprises a first support element on which the exciter arrangement (6a, 6b) is disposed, and in that the support device comprises a second support device on which the hydraulic apparatus (2a, 2b) is disposed, wherein the second support element by way of at least one spring element is coupled to the first support element. - at least one hydraulic apparatus (2a, 2b) for generating a hydraulic pressure, wherein the hydraulic apparatus (2a, 2b) has an internal-combustion engine and a hydraulic pump that is drivable by the internal-combustion engine, - at least one exciter arrangement (6a, 6b) which is configured so as to be spatially separate from the hydraulic apparatus (2a, 2b) and which by way of at least one hydraulic line (5a, 5b, 5c, 5d) is connected to the hydraulic apparatus (2a, 2b), wherein the exciter arrangement (6a, 6b) has at least one hydraulic motor and at least one rotatably mounted unbalanced mass, wherein a hydraulic fluid is guided in a circuit that comprises the hydraulic apparatus, the hydraulic line (5a, 5b, 5c, 5d), and the hydraulic motor, and wherein the unbalanced mass is drivable by means of the hydraulic motor so as to generate vibration movements of the exciter arrangement (6a, 6b),
First coupling part, which is formed to interact with a second coupling part of a tool coupling, the first coupling part comprising a first body and a conical pin, which extends from the first body along a centre axis (x) to an end surface and has a decreasing diameter from the first body to the end surface, the conical pin being formed to be insertable into a conical seat, which extends along a longitudinal axis (x') of the second coupling part in such a way that the centre axis (x) and the longitudinal axis (x') coincide, the conical pin comprising a cavity, which comprises a number of first protuberances, which are separated and arranged at a distance from each other along a circumferential direction in respect of the centre axis (x) in such a way that there are formed a corresponding number of first recesses, the first protuberances forming respective first contact surfaces, and the first contact surfaces being formed to interact with a corresponding number of separated, second contact surfaces of a pull member of the second coupling part, wherein the first contact surfaces form an acute angle (α) with the centre axis (x) and characterised in that, the cavity of the pin extends from the end surface to a bottom surface, the first protuberances are arranged at a distance from the bottom surface and the first contact surfaces face the bottom surface of the cavity of the conical pin.
A stimulation system for stimulation of oil production in an oil field, comprising: - a plurality of wells (1, 2), and - a plurality of activation devices arranged in the wells, wherein the activation devices are activated with a frequency of once within a period of 1-365 days and with an energy discharge of at least 0.1 kilograms TNT equivalence per activation, characterised in that the activation device is a fluid-activated gun, said fluid being pressurised injection fluid, and the gun converts energy from the pressurised fluid into mechanical waves, where said gun is activated continuously in a time interval during the period, providing vibrations having an energy of at least 0.1 kilograms TNT equivalence in total during the period. - a plurality of wells (1, 2), and - a plurality of activation devices arranged in the wells,
Assembly system for floor and/or wall tiles, the assembly system comprises: • at least two tiles; • female portions and male portions arranged on side edges of said tiles; • at least one male element (5, 6, 5', 6'), curved and opened; • at least one grooved curved portion (3, 4, 7), wherein the grooved curved portion (3, 4, 7) has a configuration for receiving and retaining the male element (5, 6, 5', 6') and wherein said grooved curved portion (3, 4, 7) confluences in said side edges of each tile; such that when said tiles are put together by their adjacent edges and convergent corners in a mounting position, the grooved curved portions (3, 4, 7) of the tiles match, and the male element (5, 6, 5', 6') is inserted, by applying pressure on it, through the grooved curved portion of one of said tiles until at least the grooved curved portion of the other of said tiles is reached, so that the said tiles are engaged is stable and unmovable fit; where in the grooved curved portion (3, 4, 7) is arranged in the underside of each tile, characterized in that the male element (5, 6, 5', 6') has a variable angular amplitude selected between 180° and 270°. • at least two tiles; • female portions and male portions arranged on side edges of said tiles; • at least one male element (5, 6, 5', 6'), curved and opened; • at least one grooved curved portion (3, 4, 7), wherein the grooved curved portion (3, 4, 7) has a configuration for receiving and retaining the male element (5, 6, 5', 6') and wherein said grooved curved portion (3, 4, 7) confluences in said side edges of each tile;
A method, comprising: multicasting a discovery packet in an overlay network to endpoints coupled across a multicast backbone, wherein each endpoint comprises a virtual Ethernet Module, VEM, configured to support one or more virtual machines, VM, wherein each VM can be associated with more than one segment of the overlay network, wherein the overlay network includes a Layer 2 scheme over a Layer 3 network, each segment being identified by a unique segment identifier, ID, and wherein the discovery packet comprises a link layer multicast discovery packet configured to discover VEMs in specific segments; aggregating the received responses to the discovery packet into multipoint information for display; identifying the VEMs based on their respective responses to the discovery packet; and identifying disconnected VEMs in the overlay network based on a lack of responses from the disconnected VEMs. multicasting a discovery packet in an overlay network to endpoints coupled across a multicast backbone, wherein each endpoint comprises a virtual Ethernet Module, VEM, configured to support one or more virtual machines, VM, wherein each VM can be associated with more than one segment of the overlay network, wherein the overlay network includes a Layer 2 scheme over a Layer 3 network, each segment being identified by a unique segment identifier, ID, and wherein the discovery packet comprises a link layer multicast discovery packet configured to discover VEMs in specific segments; aggregating the received responses to the discovery packet into multipoint information for display; identifying the VEMs based on their respective responses to the discovery packet; and identifying disconnected VEMs in the overlay network based on a lack of responses from the disconnected VEMs.
An aqueous pharmaceutical composition comprising: • 0.1 g/kg to 1 g/kg of the compound 2-{4-[N-(5,6-diphenylpyrazin-2-yl)-N-isopropylamino]butyloxy}-N-(methylsulfonyl)acetamide: • 2.5 ww% to 10 ww% of a bulking agent which is glycine; • 0.05 ww% to 0.4 ww% of a detergent which is polysorbate 20; and • an aqueous phosphate buffer, wherein the total amount of said phosphate buffer is 5 mmol/kg to 20 mmol/kg; wherein the pH of said aqueous pharmaceutical composition is between 7 and 8. • 0.1 g/kg to 1 g/kg of the compound 2-{4-[N-(5,6-diphenylpyrazin-2-yl)-N-isopropylamino]butyloxy}-N-(methylsulfonyl)acetamide: • 2.5 ww% to 10 ww% of a bulking agent which is glycine; • 0.05 ww% to 0.4 ww% of a detergent which is polysorbate 20; and • an aqueous phosphate buffer, wherein the total amount of said phosphate buffer is 5 mmol/kg to 20 mmol/kg;