mhurhangee/ep-ind-claims huggingface dataset:
Transmission apparatus for transmitting audio data to a hearing aid having - a transmission device for sending the audio data in a Bluetooth signal, - an encoder, which is integrated in the transmission device, for compressing the audio data prior to sending, and - a relay station for converting the Bluetooth signal from the transmission device into a signal for inductive transmission to the hearing aid, characterized in that - the encoder differs from an SBC encoder and the audio bandwidth following compression by the encoder is less than 15 kHz, - the conversion in the relay station does not involve any recoding being performed, which means that the data rate and the clock rate of the Bluetooth signal correspond to those of the signal for inductive transmission, - the transmission device sends on the basis of the A2DP protocol of Bluetooth and - the data rate in the Bluetooth signal is below 150 kbit/s. - a transmission device for sending the audio data in a Bluetooth signal, - an encoder, which is integrated in the transmission device, for compressing the audio data prior to sending, and - a relay station for converting the Bluetooth signal from the transmission device into a signal for inductive transmission to the hearing aid, - the encoder differs from an SBC encoder and the audio bandwidth following compression by the encoder is less than 15 kHz, - the conversion in the relay station does not involve any recoding being performed, which means that the data rate and the clock rate of the Bluetooth signal correspond to those of the signal for inductive transmission, - the transmission device sends on the basis of the A2DP protocol of Bluetooth and - the data rate in the Bluetooth signal is below 150 kbit/s.
A weatherseal assembly for a window opening comprising: first and second legs joined by an interconnecting leg to form a generally U-shaped, rigid channel enclosing a window receiving cavity wherein the first and second legs (220, 222) of the channel each comprise an indented portion (226, 228) that extends into the cavity; first and second seal portions integrated with and secured to the channel and providing first and second lips that extend into a portion of the cavity and are adapted to seal against an associated vehicle window; a door frame assembly (200, 202) including an inner door panel and an outer door panel having end portions spaced apart by a first dimension to receive the rigid channel; and a mechanism for securing the channel to the door frame assembly (200, 202), characterized in that the first lip is co-formed with the first leg of the rigid channel, the second lip is co-formed with the second leg of the rigid channel and the first lip extends from connection with the first leg in a region adjacent the indented portion thereof. first and second legs joined by an interconnecting leg to form a generally U-shaped, rigid channel enclosing a window receiving cavity wherein the first and second legs (220, 222) of the channel each comprise an indented portion (226, 228) that extends into the cavity; first and second seal portions integrated with and secured to the channel and providing first and second lips that extend into a portion of the cavity and are adapted to seal against an associated vehicle window; a door frame assembly (200, 202) including an inner door panel and an outer door panel having end portions spaced apart by a first dimension to receive the rigid channel; and a mechanism for securing the channel to the door frame assembly (200, 202),
Use of a composite for extracting one or more contaminating specie(s) chosen among arsenic, selenium, germanium and tellurium or one or more metal(s) from an aqueous medium by selective binding, said composite comprising at least one porous metal organic framework functionalized by at least one polymer comprising one of the following chemical functions: primary, secondary or tertiary amine, amide, nitrile, pyridine, pyrrole, thiol, thioether, thiophene, thiadiazole, alcohol/hydroxyl, phenol, catechol, pyrogallol, carboxylic acid, aldehyde, ester, acyl, crown ether, phosphate, phosphoryl, epoxide, halogen, haloalkane; wherein said polymer has been formed by polymerizing monomers in contact with the porous template formed by the metal organic framework so that most of the polymer is located inside the porous template rather than the outside surface, the polymer not being able to leave the porous template.
Cooking appliance, comprising at least one cooking chamber which has at least one cooking chamber wall, and comprising at least one microwave heating source for heating food, and comprising at least one support means for receiving food supports, the at least one support means having a fastening element, and the cooking chamber wall having at least one recess and at least one passage means, the passage means having at least one through-opening for receiving at least one fastening element of the support means, and at least one tubular guide portion being formed at the through-opening of the passage means, which portion has at least one safety portion for shielding from microwave radiation, and the safety portion being formed by the length of the guide portion of the passage means being greater than the portion of the fastening element which is received in the through-opening in the assembled state, characterised in that the cooking appliance has an insulating means which is arranged between the fastening element of the support means and the passage means and/or the tubular guide portion in the assembled state, with direct contact between these components being prevented, and no part of the fastening element being arranged within the safety portion in the assembled state of the fastening element in the passage means.
An air intake for a stationary gas turbine engine, comprising a vertical duct (15; 115; 215) having a front wall, a rear wall, side walls (18; 118; 218) and a feed opening in the rear wall, the front wall and the rear wall being flat and parallel to each other; wherein the side walls (18; 118; 218) define: a divergent diffuser section (20; 120; 220) of the vertical duct (15; 115; 215), configured to slow down an inlet airflow flowing through the vertical duct (15; 115; 215); and a convergent conveyor section (21; 121; 221) of the vertical duct (15; 115; 215), arranged downstream of the divergent diffuser section (20; 120; 220) and around the feed opening and configured to redirect part of the inlet airflow toward the feed opening; the air intake being characterized in that in the divergent diffuser section (20; 120; 220) the side walls (18; 118; 218) are configured to deflect the inlet airflow away from a longitudinal median plane of the vertical duct (15; 115; 215) by Coanda effect, whereby separation of the inlet airflow from the side walls (18; 118; 218) is prevented. a divergent diffuser section (20; 120; 220) of the vertical duct (15; 115; 215), configured to slow down an inlet airflow flowing through the vertical duct (15; 115; 215); and a convergent conveyor section (21; 121; 221) of the vertical duct (15; 115; 215), arranged downstream of the divergent diffuser section (20; 120; 220) and around the feed opening and configured to redirect part of the inlet airflow toward the feed opening; the air intake being characterized in that in the divergent diffuser section (20; 120; 220) the side walls (18; 118; 218) are configured to deflect the inlet airflow away from a longitudinal median plane of the vertical duct (15; 115; 215) by Coanda effect, whereby separation of the inlet airflow from the side walls (18; 118; 218) is prevented.
A machine with a ballast receiving device for receiving ballast located under a track by means of an endless excavating chain guided in a chain channel, with the chain channel being composed of a transverse channel which can be positioned under the track, an empty channel, and a transport channel provided for ballast transport, characterized in that a conveyor device for transporting ballast in the direction of the transport channel is arranged along a top edge of the transverse channel.
A mounting rail assembly comprising: a rail configured to be coupled to a helmet, the rail including a front surface with a mounting groove extending along a length of the front surface, the mounting groove open outwardly from the front surface of the rail and configured to couple to a first accessory device at two or more positions along the length of the rail; charcterized by a shim located between the helmet and the rail and forming at least a portion of a recess, wherein the recess is proximate an edge of the mounting rail assembly open generally perpendicular to the mounting groove, the recess open upwardly to receive a second accessory device when the shim is coupled between the rail and the helmet, at least a portion of the recess positioned between the mounting groove and a rear surface of the mounting rail assembly. a rail configured to be coupled to a helmet, the rail including a front surface with a mounting groove extending along a length of the front surface, the mounting groove open outwardly from the front surface of the rail and configured to couple to a first accessory device at two or more positions along the length of the rail; charcterized by a shim located between the helmet and the rail and forming at least a portion of a recess, wherein the recess is proximate an edge of the mounting rail assembly open generally perpendicular to the mounting groove, the recess open upwardly to receive a second accessory device when the shim is coupled between the rail and the helmet, at least a portion of the recess positioned between the mounting groove and a rear surface of the mounting rail assembly.
A process for the preparation of polyurea microcapsules comprising a) dissolving at least one polyisocyanate having at least two isocyanate groups in a perfume; b) adding to the mixture obtained in step a) a colloidal stabilizer in the form of an aqueous solution of - from 0.1% to 0.4% of a of polyvinyl alcohol and - from 0.6% to 1% of a cationic copolymer of vinylpyrrolidone and of a quaternized vinylimidazol the percentages being defined by weight, relative to the total weight of the colloidal stabilizer c) adding to the mixture obtained in step b) a reactant selected from the group consisting of water soluble guanidine salts and guanidine to form a polyurea wall with the polyisocyanate. a) dissolving at least one polyisocyanate having at least two isocyanate groups in a perfume; b) adding to the mixture obtained in step a) a colloidal stabilizer in the form of an aqueous solution of - from 0.1% to 0.4% of a of polyvinyl alcohol and - from 0.6% to 1% of a cationic copolymer of vinylpyrrolidone and of a quaternized vinylimidazol the percentages being defined by weight, relative to the total weight of the colloidal stabilizer - from 0.1% to 0.4% of a of polyvinyl alcohol and - from 0.6% to 1% of a cationic copolymer of vinylpyrrolidone and of a quaternized vinylimidazol c) adding to the mixture obtained in step b) a reactant selected from the group consisting of water soluble guanidine salts and guanidine to form a polyurea wall with the polyisocyanate.
A method for obtaining water-soluble compounds from eukaryotic or prokaryotic microalgae (cyanobacteria), characterized in that said method comprises at least one step of extracting said water-soluble compounds using an ultrasound treatment by applying an ultrasonic power (Pus) of between 10 and 1000 W/L to the microalgae or cyanobacteria mixed with an aqueous solution to which a pressure of between 1 and 2 bar, a temperature of between 5 and 70°C, and a flow rate of between 1 and 1000 L/hour is concurrently applied.
A gatebox system for a hopper that contains fluid in a firefighting aircraft, comprising: a box assembly with an upper portion adapted to receive the fluid from the hopper, and having a first gate opening and a second gate opening formed through a lower portion thereof; a first gate hingedly connected along an edge of said first gate opening; a second gate hingedly connected along an edge of said second gate opening; a drive shaft supported within said box assembly and rotatable in a gates-closing direction and a gates-opening direction; a first crank arm fixed to said drive shaft and coupled to said first gate by a first connecting link, wherein said first crank arm and said first connecting link define an over-center geometry while said first gate is at a closed position, such that weight of the fluid on said first gate induces torque on said drive shaft in said gates-closing direction; a second crank arm fixed to said drive shaft and coupled to said second gate by a second connecting link, wherein said second crank arm and said second connecting link define an over-center geometry while said second gate is at a closed position such that weight of the fluid on said second gate induces torque on said drive shaft in said gates-closing direction, and wherein rotation of said drive shaft in said gates-opening direction is coupled to said first and second gates by said first and second crank arms and said first and second connecting links to open said first and second gates, to thereby enable control of the fluid flow from the hopper according to an angular position of said drive shaft. a box assembly with an upper portion adapted to receive the fluid from the hopper, and having a first gate opening and a second gate opening formed through a lower portion thereof; a first gate hingedly connected along an edge of said first gate opening; a second gate hingedly connected along an edge of said second gate opening; a drive shaft supported within said box assembly and rotatable in a gates-closing direction and a gates-opening direction; a first crank arm fixed to said drive shaft and coupled to said first gate by a first connecting link, wherein said first crank arm and said first connecting link define an over-center geometry while said first gate is at a closed position, such that weight of the fluid on said first gate induces torque on said drive shaft in said gates-closing direction; a second crank arm fixed to said drive shaft and coupled to said second gate by a second connecting link, wherein said second crank arm and said second connecting link define an over-center geometry while said second gate is at a closed position such that weight of the fluid on said second gate induces torque on said drive shaft in said gates-closing direction, and wherein rotation of said drive shaft in said gates-opening direction is coupled to said first and second gates by said first and second crank arms and said first and second connecting links to open said first and second gates, to thereby enable control of the fluid flow from the hopper according to an angular position of said drive shaft.
An interpenetrating polymer network material comprising copolymer of vinylamine-vinylformamide; and a homopolymer or a copolymer of at least one monomer selected from acrylamide or derivatives thereof, acrylic acid or derivatives thereof, or a mixture thereof, which has been polymerized in the presence of the copolymer of vinylamine-vinylformamide, wherein the copolymer of vinylamine-vinylformamide has degree of hydrolysis 14 - 55 %.
A guide wire (1; 2; 3) comprising a core shaft, a coil body which covers said core shaft, and a coating portion (10; 12; 14) which covers said coil body, wherein: said coating portion (10; 12; 14) is formed by stacking two films (10a, 10b; 12a, 12b; 12c; 14a, 14b, 14c); the lowermost layer film (10a; 12a; 14a) of said coating portion (10; 12; 14) is a hydrophobic film; the upper layer film (10b; 12c, 12b; 14c, 14b) above the lowermost layer film (10a; 12a; 14a) of said coating portion (10b 12; 14) is a hydrophilic film; said hydrophobic film (10b; 12a; 14a) is arranged to come between wires of said coil body; characterized in that a space (20; 22; 24a) is formed between the hydrophilic film (10b; 12c, 12b; 14c, 14b) and the sections of the hydrophobic film (10a; 12a; 14a) where said hydrophobic film (10a; 12a; 14a) is arranged to come between the wires of said coil body. said coating portion (10; 12; 14) is formed by stacking two films (10a, 10b; 12a, 12b; 12c; 14a, 14b, 14c); the lowermost layer film (10a; 12a; 14a) of said coating portion (10; 12; 14) is a hydrophobic film; the upper layer film (10b; 12c, 12b; 14c, 14b) above the lowermost layer film (10a; 12a; 14a) of said coating portion (10b 12; 14) is a hydrophilic film; said hydrophobic film (10b; 12a; 14a) is arranged to come between wires of said coil body; characterized in that a space (20; 22; 24a) is formed between the hydrophilic film (10b; 12c, 12b; 14c, 14b) and the sections of the hydrophobic film (10a; 12a; 14a) where said hydrophobic film (10a; 12a; 14a) is arranged to come between the wires of said coil body.
A method of cleaning at least one surface of an ion source (200, 300, 400) in a mass spectrometer, wherein the at least one surface of the ion source comprises a surface of an electrode (240, 242, 340, 342, 440, 442) of the ion source, wherein the ion source includes a laser for ionising sample material by firing UV light at the sample material, wherein the method of cleaning includes: directing UV light on to the at least one surface of the ion source such that contaminant material is desorbed from the at least one surface; wherein the UV light directed on to the at least one surface of the ion source is produced by the laser for ionising sample material; wherein the directing UV light on to the at least one surface of the ion source includes reflecting the UV light produced by the laser for ionising sample material onto the at least one surface of the ion source via a reflecting surface (250, 350, 351, 450); wherein the directing UV light on to the at least one surface of the ion source includes moving the reflecting surface into a path of the UV light produced by the laser so that the reflecting surface reflects the UV light. directing UV light on to the at least one surface of the ion source such that contaminant material is desorbed from the at least one surface; wherein the UV light directed on to the at least one surface of the ion source is produced by the laser for ionising sample material; wherein the directing UV light on to the at least one surface of the ion source includes reflecting the UV light produced by the laser for ionising sample material onto the at least one surface of the ion source via a reflecting surface (250, 350, 351, 450); wherein the directing UV light on to the at least one surface of the ion source includes moving the reflecting surface into a path of the UV light produced by the laser so that the reflecting surface reflects the UV light.
A compound of the formula: or a pharmaceutically acceptable salt thereof, wherein: R 1 is a 5- to 6-membered heteroaryl ring having 1-3 heteroatoms independently selected from oxygen, nitrogen, and sulfur, wherein the 5- to 6-membered heteroaryl ring is optionally substituted with fluorine or methyl; R 2 is a 5- to 6-membered heteroaryl ring having 1 heteroatom selected from nitrogen and sulfur, or phenyl, wherein the 5- to 6-membered heteroaryl ring or phenyl is optionally substituted with 1-2 groups selected from fluorine and chlorine; R 4 is hydrogen or methyl; Q is N; X, Y and Z are independently CR 5 or a nitrogen atom, provided that no more than two X, Y and Z are nitrogen atoms; and R 5 is hydrogen or methyl. R 1 is a 5- to 6-membered heteroaryl ring having 1-3 heteroatoms independently selected from oxygen, nitrogen, and sulfur, wherein the 5- to 6-membered heteroaryl ring is optionally substituted with fluorine or methyl; R 2 is a 5- to 6-membered heteroaryl ring having 1 heteroatom selected from nitrogen and sulfur, or phenyl, wherein the 5- to 6-membered heteroaryl ring or phenyl is optionally substituted with 1-2 groups selected from fluorine and chlorine; R 4 is hydrogen or methyl; Q is N; X, Y and Z are independently CR 5 or a nitrogen atom, provided that no more than two X, Y and Z are nitrogen atoms; and R 5 is hydrogen or methyl.
A wireless communication method between - a plurality of measuring devices, and - at least one data collection unit for collecting data from the plurality of measuring devices, wherein the method is characterised by: - sending uplink data frames from at least one of the measuring devices to the at least one data collection unit, - providing by the at least one of the measuring devices, after sending of at least some of the uplink data frames, a time-limited access opportunity, AO, for receiving a downlink frame from the at least one data collection unit, - classifying, by the data collection unit, downlink frames in N different classes, wherein N ε N, wherein the downlink frames are to be sent from the at least one data collection unit to the at least one of the measuring devices, - sending, by the data collection unit, a classified downlink frame to the at least one of the measuring devices during an access opportunity, AO, only if a current downlink duty cycle does not exceed a duty cycle limit, wherein the duty cycle limit depends on a prioritization of that class of the N different classes which the downlink frame is classified to. - a plurality of measuring devices, and - at least one data collection unit for collecting data from the plurality of measuring devices, - sending uplink data frames from at least one of the measuring devices to the at least one data collection unit, - providing by the at least one of the measuring devices, after sending of at least some of the uplink data frames, a time-limited access opportunity, AO, for receiving a downlink frame from the at least one data collection unit, - classifying, by the data collection unit, downlink frames in N different classes, wherein N ε N, wherein the downlink frames are to be sent from the at least one data collection unit to the at least one of the measuring devices, - sending, by the data collection unit, a classified downlink frame to the at least one of the measuring devices during an access opportunity, AO, only if a current downlink duty cycle does not exceed a duty cycle limit, wherein the duty cycle limit depends on a prioritization of that class of the N different classes which the downlink frame is classified to.
A method of making a shaped baked good, said method comprising: preparing a dough including a starch, a fat, and a sugar, wherein said dough has a moisture content before baking of from 8% to 15% w/w by weight of the shaped baked good; shaping said dough into a webbed sheet comprising shaped dough regions; baking said webbed sheet to form a baked webbed sheet comprising shaped baked good regions corresponding to said shaped dough regions; and separating and deflashing said shaped baked good regions of said baked webbed sheet to form individual shaped baked goods. preparing a dough including a starch, a fat, and a sugar, wherein said dough has a moisture content before baking of from 8% to 15% w/w by weight of the shaped baked good; shaping said dough into a webbed sheet comprising shaped dough regions; baking said webbed sheet to form a baked webbed sheet comprising shaped baked good regions corresponding to said shaped dough regions; and separating and deflashing said shaped baked good regions of said baked webbed sheet to form individual shaped baked goods.