mhurhangee/ep-ind-claims huggingface dataset:
A device for infusing a substance to be infused, having: - an infusion chamber intended to receive the substance to be infused and to pass a flow of water under pressure through the substance to be infused, the infusion chamber having an inlet part for water into the infusion chamber and an outlet part for infused beverage, - an injection channel in fluid communication, through an injection end, with an inlet part and connectable, by means of an admission end, to a pressurised water circuit, characterised in that it comprises adjustable means for varying the pressure of water in the injection channel arranged to generate a difference in water pressure between the admission end and the injection end and controlled by control means external to the infusion chamber, the control means comprising means accessible to the user manufacturing the beverage, this accessibility taking place from the outside of the device. - an infusion chamber intended to receive the substance to be infused and to pass a flow of water under pressure through the substance to be infused, the infusion chamber having an inlet part for water into the infusion chamber and an outlet part for infused beverage, - an injection channel in fluid communication, through an injection end, with an inlet part and connectable, by means of an admission end, to a pressurised water circuit,
Fill level measuring device for measuring a fill level of a liquid material in a container, comprising at least two flexible wire probes (5, 6) that extend into the container and serve to guide, and/or are provided with, an electromagnetic measurement signal generated by a signal generator of the fill level measuring device, further comprising an end-weight, said end-weight being connected to said at least two flexible wire probes (5, 6) and embodied such that it serves to apply an axial tensile force to at least a portion of the length of each of the at least two flexible wire probes (5, 6), characterised in that each of the at least two flexible wire probes (5, 6) is connected to a corresponding end-weight (8a, 8b), wherein the corresponding end-weights (8a, 8b) are joined together such that they can rotate with respect to each other and/or can move in an axial direction with respect to each other, said axial direction being essentially parallel to a direction defined by the axial tensile force, wherein a first corresponding end-weight of the at least two end-weights comprises a hole for receiving a second corresponding end-weight of the at least two end-weights, said hole opening on a side of the end-weight facing the flexible wire probes (5, 6), said hole extending from the opening into the end-weight in a direction essentially parallel to the axial tensile force applied by the end-weights (8a, 8b).
Aircraft provided with an engine compartment, said aircraft comprising an engine housed at least partially in the engine compartment, the engine comprising an exhaust nozzle for at least ejecting gases, said aircraft comprising an exhaust duct arranged around the exhaust nozzle, the exhaust duct having an open end leading to the engine compartment, characterised in that said aircraft includes a drainage device comprising a guide for collecting a liquid flowing along the exhaust duct and escaping from the exhaust duct via said end, said drainage device including at least one discharge orifice for discharging said liquid.
A strip for being connected to a drip irrigation hose for distributing water having a repetitive labyrinth segment (2, 2'), wherein a plurality of profiles (21, 24, 25, 26) are provided to a base of the strip, said labyrinth segment (2, 2') comprises: a water input section (3, 3'); a regulating section (4, 4') arranged downstream from the water input section, wherein said regulating section is provided to regulate water flow rate of the strip in response to water pressure of said hose; and a discharge section (5, 5') arranged downstream from the regulating section (4, 4'), wherein said discharge section is provided with deflection-resistant reinforcement means; characterized in that the regulating section (4,4') has two rails forming side walls of the strip and comprises two different types of profiles (24, 25) which are provided at the base of the strip, wherein the first profiles which are rectangular shape partitions have the same height across its top surface as to the top surface of the rails, wherein the second profiles which are wedge-shape partitions have gradually reducing height moving to the centre of the strip compared to the side connected to the rails, wherein said first and second profiles (24, 25) are provided in an alternative, and regular or irregular fashion throughout the regulating section, such that said regulating section (4,4') simultaneously regulates and responses to the water pressure of said hose. a water input section (3, 3'); a regulating section (4, 4') arranged downstream from the water input section, wherein said regulating section is provided to regulate water flow rate of the strip in response to water pressure of said hose; and a discharge section (5, 5') arranged downstream from the regulating section (4, 4'), wherein said discharge section is provided with deflection-resistant reinforcement means; characterized in that the regulating section (4,4') has two rails forming side walls of the strip and comprises two different types of profiles (24, 25) which are provided at the base of the strip, wherein the first profiles which are rectangular shape partitions have the same height across its top surface as to the top surface of the rails, wherein the second profiles which are wedge-shape partitions have gradually reducing height moving to the centre of the strip compared to the side connected to the rails, wherein said first and second profiles (24, 25) are provided in an alternative, and regular or irregular fashion throughout the regulating section, such that said regulating section (4,4') simultaneously regulates and responses to the water pressure of said hose.
A method for receiving signals by a user equipment, UE, in a wireless communication system supporting coverage enhancement, the method comprising: receiving first system information from a base station, the first system information including scheduling information indicating a number of repetitions for second system information; and repeatedly receiving the second system information from the base station for the number of repetitions indicated by the scheduling information, wherein the second system information is received on a physical downlink shared channel, PDSCH. receiving first system information from a base station, the first system information including scheduling information indicating a number of repetitions for second system information; and repeatedly receiving the second system information from the base station for the number of repetitions indicated by the scheduling information, wherein the second system information is received on a physical downlink shared channel, PDSCH.
A device for handling a number of sleeves, preferably paper sleeves, before, during and after rolling up of each paper web thereon, at least one insert sleeve bent from a rigid material web and of a length substantially corresponding to the total length of the sleeves being inserted in the sleeves for simultaneous handling thereof, the insert sleeve being rectangular, characterised in that the insert sleeve is provided with a double-wall (F1 and F6) which extends diagonally in the rectangular insert sleeve.
A battery pack comprising a means configured to, when an abnormal phenomenon, such as fire outbreak or heat generation, occurs in a battery cell, prevent fire or heat from propagating to another battery cell adjacent thereto, the battery pack comprising: a plurality of battery cells; a case configured to receive the plurality of battery cells; an energy discharging means configured to discharge energy of the battery pack when the abnormal phenomenon occurs; and a fire extinguishing means configured to discharge aerosol at an operating temperature or higher in order to extinguish flames generated in the battery pack, wherein the energy discharging means comprises a resistor having an electrical resistance and an operating switch; and wherein the fire extinguishing means is disposed adjacent to the resistor and a temperature of the fire extinguishing means reaches the operating temperature using thermal energy generated from the resistor when the abnormal phenomenon occurs. a plurality of battery cells; a case configured to receive the plurality of battery cells; an energy discharging means configured to discharge energy of the battery pack when the abnormal phenomenon occurs; and a fire extinguishing means configured to discharge aerosol at an operating temperature or higher in order to extinguish flames generated in the battery pack, wherein the energy discharging means comprises a resistor having an electrical resistance and an operating switch; and wherein the fire extinguishing means is disposed adjacent to the resistor and a temperature of the fire extinguishing means reaches the operating temperature using thermal energy generated from the resistor when the abnormal phenomenon occurs.
A pressure foot assembly for embroidery machines, comprising a plurality of tongue-shaped pressure feet arranged equidistantly next to one another, the foot regions of said pressure feet being arranged at a common carrier, characterized in that the pressure feet, spaced apart from the carrier, are connected to each other at their top ends by webs.
An in-situ flow detection-based packet processing method, comprising: receiving, by a first node, a first packet from a second node, wherein a first packet header of the first packet comprises first in-situ flow detection information, and the first packet is a packet encapsulated by using a first bearer protocol; obtaining, by the first node, a second packet by re-encapsulating the first packet, wherein a second packet header of the second packet comprises the first in-situ flow detection information, the second packet is a packet encapsulated by using a second bearer protocol, and the first bearer protocol and the second bearer protocol are different bearer protocols; and forwarding, by the first node, the second packet to a third node. receiving, by a first node, a first packet from a second node, wherein a first packet header of the first packet comprises first in-situ flow detection information, and the first packet is a packet encapsulated by using a first bearer protocol; obtaining, by the first node, a second packet by re-encapsulating the first packet, wherein a second packet header of the second packet comprises the first in-situ flow detection information, the second packet is a packet encapsulated by using a second bearer protocol, and the first bearer protocol and the second bearer protocol are different bearer protocols; and forwarding, by the first node, the second packet to a third node.
An extraction unit for extracting cartridges (1a;1b) of two different heights (ha;hb) comprising a seat (11,12,13;15) for receiving any of said cartridges (1a;1b) for extraction thereof in the seat, the seat being delimited by a first part (11,12,13) and second part that are relatively movable between a cartridge extraction position and a cartridge loading and/or ejection position, the first part (11,12,13) having a first portion (11,12) and a second portion that are relatively movable to delimit a cavity having selectively: - a first depth (da) for receiving a cartridge of the first height (ha); and - a second depth (db) for receiving a cartridge of the second height (hb), the first part (11,12,13) having a lock (112',132,132',142') for locking the first and second portions (11,12,13) when the delimited cavity has the first depth (da) or the second depth (db), characterised in that such unit further comprises a mechanical sensor that senses the height (ha;hb) of a cartridge (1a;1b) and that controls the lock (112',132,132',142') to lock or unlock the first and second portions (11,12,13) when the sensor is actuated by a cartridge of first height (ha) or of second height (hb). - a first depth (da) for receiving a cartridge of the first height (ha); and - a second depth (db) for receiving a cartridge of the second height (hb),
A method for demultiplexing a multiplexed single frame (103, 901) divided into portions, wherein the multiplexed single frame comprises a first and second right image formed from an original right image and disposed in a first (904, 1003) and second (905, 1004) portion of the multiplexed single frame, wherein the multiplexed single frame further comprises a first and second left image formed from an original left image and disposed in a third (902, 1001) and fourth (903, 1002) portion of the multiplexed single frame, wherein the first right image, the second right image, the first left image, and the second left image are formed using first, second, third, and fourth image size reduction techniques, respectively, and wherein at least one of the first, second, third, and fourth image size reduction techniques is different from another one of the first, second, third, and fourth image size reduction techniques, the method comprising: receiving the multiplexed single frame comprising the first right image, the second right image, the first left image, and the second left image formed using the first, second, third, and fourth image size reduction techniques, respectively; generating a demultiplexed right image from the first and second right images formed using the first and second image size reduction techniques, wherein the generating comprises using reverse first and second image size reduction techniques; and generating a demultiplexed left image from the first and second left images formed using the third and fourth image size reduction techniques, wherein the generating comprises using reverse third and fourth image size reduction techniques. receiving the multiplexed single frame comprising the first right image, the second right image, the first left image, and the second left image formed using the first, second, third, and fourth image size reduction techniques, respectively; generating a demultiplexed right image from the first and second right images formed using the first and second image size reduction techniques, wherein the generating comprises using reverse first and second image size reduction techniques; and generating a demultiplexed left image from the first and second left images formed using the third and fourth image size reduction techniques, wherein the generating comprises using reverse third and fourth image size reduction techniques.
Solar module construction comprising at least one pyramidal support unit with a triangular base and triangular lateral planes as well as photovoltaic units provided on at least one of the lateral planes of the support unit, characterized in that - the support unit is designed as supporting frame, which spans the triangular base by means of base struts and the lateral planes by means of lateral struts, - at least one of the lateral planes is stretched over with a flexible material, whereby the flexible material has one of the following features: transparent, reflecting, structured, sound-absorbent and - the photovoltaic units on at least one lateral plane are attached in the form of flexible solar modules on the flexible material. - the support unit is designed as supporting frame, which spans the triangular base by means of base struts and the lateral planes by means of lateral struts, - at least one of the lateral planes is stretched over with a flexible material, whereby the flexible material has one of the following features: transparent, reflecting, structured, sound-absorbent and - the photovoltaic units on at least one lateral plane are attached in the form of flexible solar modules on the flexible material.
A contact surface for an object comprising: a base layer having a microstructured area; an adhesive layer affixed to the base layer configured to affix the base layer to the object and a composite microstructure disposed on the microstructured area comprising: a first set of microstructures having a first micro-feature with a first width between 80 μm and 120 μm; and a second set of microstructures having a second micro-feature with a second width less than the first width; characterized in that the second width is between 25% and 41% of the first width; and the composite microstructure further comprises a third set of microstructures having a third micro feature with a third width between 3% and 6% of the first width. a base layer having a microstructured area; an adhesive layer affixed to the base layer configured to affix the base layer to the object and a composite microstructure disposed on the microstructured area comprising: a first set of microstructures having a first micro-feature with a first width between 80 μm and 120 μm; and a second set of microstructures having a second micro-feature with a second width less than the first width; characterized in that the second width is between 25% and 41% of the first width; and a first set of microstructures having a first micro-feature with a first width between 80 μm and 120 μm; and a second set of microstructures having a second micro-feature with a second width less than the first width; characterized in that the second width is between 25% and 41% of the first width; and the composite microstructure further comprises a third set of microstructures having a third micro feature with a third width between 3% and 6% of the first width.
A remote-control vehicle (101, 201) comprising: a first wheel (105, 203) and a second wheel (103, 205) offset along the longitudinal axis of the vehicle, a device adapted to apply a torque to the first wheel, (105, 203) a sensor configured to monitor the pitch angle of the vehicle, and a control module configured to control the torque applied by the device to the first wheel (105, 203) in accordance with the monitored vehicle pitch angle so as to accelerate the vehicle by changing the speed of the vehicle in the direction of travel, while maintaining the vehicle pitch angle within a range of acute angles at which the second wheel is raised. a first wheel (105, 203) and a second wheel (103, 205) offset along the longitudinal axis of the vehicle, a device adapted to apply a torque to the first wheel, (105, 203) a sensor configured to monitor the pitch angle of the vehicle, and a control module configured to control the torque applied by the device to the first wheel (105, 203) in accordance with the monitored vehicle pitch angle so as to accelerate the vehicle by changing the speed of the vehicle in the direction of travel, while maintaining the vehicle pitch angle within a range of acute angles at which the second wheel is raised.
Method for operating an installation for producing at least hydrogen, wherein: - in a purification unit (4; 104), the hydrogen present in a synthesis gas conveyed via a first pipe (5; 105) to the purification unit (4; 104) is extracted and a residue gas is recovered, this residue gas is stored in a buffer capacity arranged on a second pipe (9; 109) for the conveying of the residue gas from the purification unit (4; 104) to burners (6; 106), and - said burners (6; 106) are supplied at least with the residue gas stored in the buffer capacity, this method being characterised in that following an unintentional shutdown of the purification unit (4; 104): the burners (6; 106) continue, at least in a first step, to be supplied with residue gas by using that which is stored in the buffer capacity, - a first flow-control valve (18; 30; 118) is opened progressively, in order to supply the burners (6; 106) with an increasing quantity of replacement gas formed by at least one portion of the synthesis gas, said control valve is located on a third pipe (17; 29; 117) that connects the first pipe (5; 105) to the second pipe (9; 109). - in a purification unit (4; 104), the hydrogen present in a synthesis gas conveyed via a first pipe (5; 105) to the purification unit (4; 104) is extracted and a residue gas is recovered, this residue gas is stored in a buffer capacity arranged on a second pipe (9; 109) for the conveying of the residue gas from the purification unit (4; 104) to burners (6; 106), and - said burners (6; 106) are supplied at least with the residue gas stored in the buffer capacity, - a first flow-control valve (18; 30; 118) is opened progressively, in order to supply the burners (6; 106) with an increasing quantity of replacement gas formed by at least one portion of the synthesis gas, said control valve is located on a third pipe (17; 29; 117) that connects the first pipe (5; 105) to the second pipe (9; 109).
Combined facility for the cryogenic separation and liquefaction of methane and carbon dioxide in a biogas stream, comprising: - a means M1 for mixing the biogas with a recycle gas R, - a compressor for compressing the mixture to the distillation pressure, - an exchanger E01 for cooling the compressed mixture, - a distillation column K01 supplied with the cooled mixture and making it possible to produce a methane-enriched stream at the top of the column and a CO 2 -enriched liquid at the bottom of the column, - an exchanger E02 for liquefying the methane-enriched stream produced at the top of the column K01, - a separator vessel V04 for receiving the methane-enriched liquid and for recovering an overhead vapour and liquid methane, - a means for sending the liquid methane to the top of the column K01, - a distillation column K02 supplied with the overhead vapour obtained from the separator vessel V04 and making it possible to produce a stream enriched in impurities at the top of the column K02 and a methane-enriched liquid at the bottom of the column K02, - a means M3 for expanding and heating the CO 2 -enriched liquid recovered at the bottom of the column K01 and for recovering the cold from the CO 2 -enriched liquid, and - a separator vessel V01 for receiving the CO 2 -enriched stream from the means M3 and for recovering an overhead vapour and CO 2 -enriched liquid, with - the means M1 such that the recycle gas R corresponds to the overhead vapour recovered at the outlet of the separator vessel V01, and - the exchanger E01 and the means M3 being combined. - a means M1 for mixing the biogas with a recycle gas R, - a compressor for compressing the mixture to the distillation pressure, - an exchanger E01 for cooling the compressed mixture, - a distillation column K01 supplied with the cooled mixture and making it possible to produce a methane-enriched stream at the top of the column and a CO 2 -enriched liquid at the bottom of the column, - an exchanger E02 for liquefying the methane-enriched stream produced at the top of the column K01, - a separator vessel V04 for receiving the methane-enriched liquid and for recovering an overhead vapour and liquid methane, - a means for sending the liquid methane to the top of the column K01, - a distillation column K02 supplied with the overhead vapour obtained from the separator vessel V04 and making it possible to produce a stream enriched in impurities at the top of the column K02 and a methane-enriched liquid at the bottom of the column K02, - a means M3 for expanding and heating the CO 2 -enriched liquid recovered at the bottom of the column K01 and for recovering the cold from the CO 2 -enriched liquid, and - a separator vessel V01 for receiving the CO 2 -enriched stream from the means M3 and for recovering an overhead vapour and CO 2 -enriched liquid, - the means M1 such that the recycle gas R corresponds to the overhead vapour recovered at the outlet of the separator vessel V01, and - the exchanger E01 and the means M3 being combined.