mhurhangee/ep-ind-claims huggingface dataset:
A test device for testing a microphone with at least one test loudspeaker for generating at least one test tone, with at least one test cavity, into which the test tone can be emitted, with at least one accommodating area for accommodating the microphone to be tested, which is designed in such a way that the microphone to be tested can be acoustically coupled to the test cavity, and with at least one reference microphone for ascertaining a reference signal of the test tone to be emitted from the test loudspeaker, wherein the test device comprises a reference cavity separated from the test cavity, into which the test tone can also be emitted and with which the reference microphone is acoustically coupled for ascertaining the reference signal, and/or wherein the accommodating area is arranged on a first side of the test loudspeaker and the reference microphone is arranged on a second side of the test loudspeaker opposite the first side characterized in that the test loudspeaker comprises a diaphragm, by means of which the test tone can be emitted into the test cavity and into the reference cavity, and that the diaphragm has a larger area than a cross-sectional area of the test cavity. with at least one test loudspeaker for generating at least one test tone, with at least one test cavity, into which the test tone can be emitted, with at least one accommodating area for accommodating the microphone to be tested, which is designed in such a way that the microphone to be tested can be acoustically coupled to the test cavity, and with at least one reference microphone for ascertaining a reference signal of the test tone to be emitted from the test loudspeaker, wherein the test device comprises a reference cavity separated from the test cavity, into which the test tone can also be emitted and with which the reference microphone is acoustically coupled for ascertaining the reference signal, and/or wherein the accommodating area is arranged on a first side of the test loudspeaker and the reference microphone is arranged on a second side of the test loudspeaker opposite the first side characterized in that the test loudspeaker comprises a diaphragm, by means of which the test tone can be emitted into the test cavity and into the reference cavity, and that the diaphragm has a larger area than a cross-sectional area of the test cavity.
A method comprising: initiating, by one or more servers of a push-to-talk platform, a PTT call session in response to a PTT call session initiation request from a first client device; receiving, by the one or more servers, a first estimated modulation and coding scheme from the first client device, wherein the first client device communicates with the one or more servers using a radio access network, and wherein the first estimated MCS is in accordance with an estimated channel quality index of a channel between the first client device and the RAN, wherein the one or more servers are external to the RAN; receiving, by the one or more servers, a first transmission over the RAN in accordance with an initial media encoding scheme from the first client device during an initial volley; and transmitting, by the one or more servers, instructions to the first client device t0 use a first MES different than the initial MES for a second transmission over the RAN during a subsequent volley, wherein the subsequent volley is after the initial volley, and wherein the first MES selected is based on the first estimated MCS. initiating, by one or more servers of a push-to-talk platform, a PTT call session in response to a PTT call session initiation request from a first client device; receiving, by the one or more servers, a first estimated modulation and coding scheme from the first client device, wherein the first client device communicates with the one or more servers using a radio access network, and wherein the first estimated MCS is in accordance with an estimated channel quality index of a channel between the first client device and the RAN, wherein the one or more servers are external to the RAN; receiving, by the one or more servers, a first transmission over the RAN in accordance with an initial media encoding scheme from the first client device during an initial volley; and transmitting, by the one or more servers, instructions to the first client device t0 use a first MES different than the initial MES for a second transmission over the RAN during a subsequent volley, wherein the subsequent volley is after the initial volley, and wherein the first MES selected is based on the first estimated MCS.
Device for releasably coupling an internal drawer to an external drawer of an item of furniture, wherein the device has an activation element and a movable engagement element and comprises attachment means, wherein the device is configured for attaching to an internal side of a front panel of the external drawer, and that the engagement element is configured having an entrainment protrusion for engaging behind a front element of the internal drawer, wherein the entraining protrusion of the engagement element is configured for engaging behind an unprepared portion of the front element of the internal drawer, characterized in that a position of the entrainment protrusion is adjustable and fixable in order for a portion of the front element of the internal drawer to engage from behind on the engagement element.
A nucleic acid vaccine, comprising: one or more messenger RNA (mRNA) polynucleotides having an open reading frame encoding at least one viral antigenic polypeptide, wherein the one or more mRNA polynucleotides comprise at least one chemical modification, wherein the at least one chemical modification is selected from the group consisting of pseudouridine, N1-methylpseudouridine, 2-thiouridine, 4-thiouridine, 5-methylcytosine, 2-thio-1-methyl-1-deaza-pseudouridine, 2-thio-1-methyl-pseudouridine, 2-thio-5-aza-uridine, 2-thio-dihydropseudouridine, 2-thio-dihydrouridine, 2-thio-pseudouridine, 4-methoxy-2-thio-pseudouridine, 4-methoxy-pseudouridine, 4-thio-1-methyl-pseudouridine, 4-thio-pseudouridine, 5-aza-uridine, dihydropseudouridine, 5-methoxyuridine, and 2'-O-methyl uridine; and wherein the one or more mRNA polynucleotides are formulated in a cationic lipid nanoparticle having a molar ratio of 20-60 % cationic lipid, 0.5-15 % PEG-modified lipid, 25-55 % sterol and 5-25 % non-cationic lipid. one or more messenger RNA (mRNA) polynucleotides having an open reading frame encoding at least one viral antigenic polypeptide, wherein the one or more mRNA polynucleotides comprise at least one chemical modification, wherein the at least one chemical modification is selected from the group consisting of pseudouridine, N1-methylpseudouridine, 2-thiouridine, 4-thiouridine, 5-methylcytosine, 2-thio-1-methyl-1-deaza-pseudouridine, 2-thio-1-methyl-pseudouridine, 2-thio-5-aza-uridine, 2-thio-dihydropseudouridine, 2-thio-dihydrouridine, 2-thio-pseudouridine, 4-methoxy-2-thio-pseudouridine, 4-methoxy-pseudouridine, 4-thio-1-methyl-pseudouridine, 4-thio-pseudouridine, 5-aza-uridine, dihydropseudouridine, 5-methoxyuridine, and 2'-O-methyl uridine; and wherein the one or more mRNA polynucleotides are formulated in a cationic lipid nanoparticle having a molar ratio of 20-60 % cationic lipid, 0.5-15 % PEG-modified lipid, 25-55 % sterol and 5-25 % non-cationic lipid.
Light module for a motor vehicle headlight, the light module comprising a secondary light unit, a drive unit and a main light unit, the secondary light unit being configured to emit, in a first position, a secondary light distribution from an emission surface of the secondary light unit, and to emit a first main light distribution from the emission surface of the secondary light unit; the drive unit being configured to move the secondary light unit relative to a main light unit starting from the first position in which the secondary light unit covers an emission surface of the main light unit at least in portions, into a second position in which the coverage of the emission surface of the main light unit by the secondary light unit is reduced; the main light unit being configured to emit a second main light distribution from the emission surface of the main light unit; and characterized in that the light module is configured to provide a headlight flasher function in that the first main light distribution that can be emitted by the secondary light unit is successively replaced by the second main light distribution that can be emitted by the main light unit during the movement of the secondary light unit from the first position into the second position. the secondary light unit being configured to emit, in a first position, a secondary light distribution from an emission surface of the secondary light unit, and to emit a first main light distribution from the emission surface of the secondary light unit; the drive unit being configured to move the secondary light unit relative to a main light unit starting from the first position in which the secondary light unit covers an emission surface of the main light unit at least in portions, into a second position in which the coverage of the emission surface of the main light unit by the secondary light unit is reduced; the main light unit being configured to emit a second main light distribution from the emission surface of the main light unit; and characterized in that the light module is configured to provide a headlight flasher function in that the first main light distribution that can be emitted by the secondary light unit is successively replaced by the second main light distribution that can be emitted by the main light unit during the movement of the secondary light unit from the first position into the second position.
A method of processing and/or analysing a sample (32,34) under centrifugal force, the method comprising: providing a sample processing cartridge having a first separation cavity adapted to contain the sample and a second cavity in fluid communication with the first separation cavity; providing the sample in the first separation cavity of the sample processing cartridge; subjecting the cartridge to a centrifugal force acting in a first direction, wherein the first separation cavity is elongated, in a plane of the cartridge, perpendicular to the centrifugal force acting in the first direction; and changing the centrifugal force from the first direction to a second direction such that the sample in the first separation cavity is moved therefrom to the second cavity, wherein the second cavity is more shallow than the first separation cavity and more extended (L 22) in the direction of the centrifugal force acting in the second direction than the first separation cavity is extended (W 18) in the direction of the centrifugal force acting in the first direction, wherein the cartridge is subjected to the centrifugal force by rotating the cartridge about an external axis, and wherein the direction of the centrifugal force is changed by rotating the cartridge about an axis within the cartridge. providing a sample processing cartridge having a first separation cavity adapted to contain the sample and a second cavity in fluid communication with the first separation cavity; providing the sample in the first separation cavity of the sample processing cartridge; subjecting the cartridge to a centrifugal force acting in a first direction, wherein the first separation cavity is elongated, in a plane of the cartridge, perpendicular to the centrifugal force acting in the first direction; and changing the centrifugal force from the first direction to a second direction such that the sample in the first separation cavity is moved therefrom to the second cavity, wherein the second cavity is more shallow than the first separation cavity and more extended (L 22) in the direction of the centrifugal force acting in the second direction than the first separation cavity is extended (W 18) in the direction of the centrifugal force acting in the first direction, wherein the cartridge is subjected to the centrifugal force by rotating the cartridge about an external axis, and wherein the direction of the centrifugal force is changed by rotating the cartridge about an axis within the cartridge.
Transportable bottling plant comprising: - a container having a front side, a back side, first and second lateral sides connecting the front and back sides, and a separation wall dividing the container into a bottling room at the front side and a technical room at the back side; - a preform feeder, a bottle blowing unit, a filling and closing unit and first and second transferring devices mounted in the bottling room; - a power generator, an air compressor and an air conditioning unit mounted in the technical room; wherein the preform feeder comprises a recipient for receiving plastic bottle preforms and an ordering unit for ordering the preforms and feeding them towards the bottle blowing unit; wherein the first transferring device is provided for transferring the preforms from the preform feeder to the bottle blowing unit; wherein the bottle blowing unit comprises a heater for heating the preforms and a blow-moulder for blow-moulding the preforms into bottles; wherein the second transferring device is provided for transferring the bottles from the bottle blowing unit to the filling and closing unit; wherein the filling and closing unit comprises a filling unit for filling the bottles with a liquid and a closing unit for closing the bottles with caps; wherein the power generator is electrically connected with the units mounted in the bottling room and is provided for generating electric power therefor; wherein the air compressor is provided for compressing air and supplying the pressurised air to the bottle blowing unit; and wherein the air conditioning unit is provided for conditioning air present in the bottling room. - a container having a front side, a back side, first and second lateral sides connecting the front and back sides, and a separation wall dividing the container into a bottling room at the front side and a technical room at the back side; - a preform feeder, a bottle blowing unit, a filling and closing unit and first and second transferring devices mounted in the bottling room; - a power generator, an air compressor and an air conditioning unit mounted in the technical room;
A method for providing vapor for a discontinuous process, the method comprising: evaporating a liquid in a direct evaporator for generating vapor; transporting the vapor from the direct evaporator to a process region via a storage volume, wherein the temperature of the storage device is controllable; wherein the fluid connection between the storage volume and the process region is interrupted by an automatically controlled valve if no vapor is required in the process region, and wherein vapor continues to be generated and transported into the storage volume at least temporarily during the interruption so that the pressure within the storage volume increases during the interruption. evaporating a liquid in a direct evaporator for generating vapor; transporting the vapor from the direct evaporator to a process region via a storage volume, wherein the temperature of the storage device is controllable; wherein the fluid connection between the storage volume and the process region is interrupted by an automatically controlled valve if no vapor is required in the process region, and wherein vapor continues to be generated and transported into the storage volume at least temporarily during the interruption so that the pressure within the storage volume increases during the interruption.
A connector cap (10, 110, 310) for a vial sealed by an elastomeric septum, said connector cap comprising: a vial collar (16, 116, 316) comprising a vial collar body defining a collar aperture to be positioned in overlying registry with the septum of the vial; a non-movable piercing guide (14, 114, 314); a needle holder (12, 112, 312) comprising a needle holder body providing a means for holding one or more elongate needles (18, 20, 318) for movement through the piercing guide (14, 114, 314) and in registry with the collar aperture, the one or more elongate needles (18, 20, 318) providing two isolated fluid passages for filling and venting of the vial, said needle holder body being moveable with respect to said vial collar (16, 116, 316) between a first position spaced from said vial collar and a second position proximate said vial collar, such that the one or more needles (18, 20, 318) held by said needle holder will puncture through the vial septum wherein the piercing guide (14, 114, 314) comprises an annular guide body positioned between said vial collar and said needle holder, said guide body defining a guide cavity in fluid communication with said collar aperture, characterized in that said needle holder (12, 112, 312) is affixed to the piercing guide (14, 114, 314) once moved to the second position to enable removal of the needle holder (12, 112, 312) from the vial with the piercing guide (14, 114, 314). a vial collar (16, 116, 316) comprising a vial collar body defining a collar aperture to be positioned in overlying registry with the septum of the vial; a non-movable piercing guide (14, 114, 314); a needle holder (12, 112, 312) comprising a needle holder body providing a means for holding one or more elongate needles (18, 20, 318) for movement through the piercing guide (14, 114, 314) and in registry with the collar aperture, the one or more elongate needles (18, 20, 318) providing two isolated fluid passages for filling and venting of the vial, said needle holder body being moveable with respect to said vial collar (16, 116, 316) between a first position spaced from said vial collar and a second position proximate said vial collar, such that the one or more needles (18, 20, 318) held by said needle holder will puncture through the vial septum wherein the piercing guide (14, 114, 314) comprises an annular guide body positioned between said vial collar and said needle holder, said guide body defining a guide cavity in fluid communication with said collar aperture, characterized in that said needle holder (12, 112, 312) is affixed to the piercing guide (14, 114, 314) once moved to the second position to enable removal of the needle holder (12, 112, 312) from the vial with the piercing guide (14, 114, 314).
Carrier element for an aerobic biological water treatment system, the carrier element having - a first end and a second end at a distance from each other, the maximum diameter of the first end being larger than the maximum diameter of the second end so that the carrier element is conical in shape, - the length of the carrier element, measured perpendicularly from the first end to the second end, being 11.0 - 14.9 mm, - biofilm growing surface structures, which are internal walls that extend from the first end to the second end, and from inner part of the element towards periphery of the element, the carrier element comprising a solid longitudinal central axis to which the internal walls are attached, - at least two support structures that encircle the growing surface structures at the periphery of the element and connect the growing surface structures to each other, the support structures defining the outer boundary surface of the carrier element, whereby the support structures are spaced from each other so that apertures allowing access to the biofilm growing surface structures are formed between the support structures, the apertures in the outer boundary surface of the carrier element against the cross sectional area of a similar solid element boundary surface being over 42 %, and - every other of the internal walls is shaped as a triangle, the base of the triangle is situated at the second end of the carrier element, where it is arranged in connection with the other internal walls, and the vertex of the triangle wall is arranged in connection with the support structure at the first end of the carrier element. - a first end and a second end at a distance from each other, the maximum diameter of the first end being larger than the maximum diameter of the second end so that the carrier element is conical in shape, - the length of the carrier element, measured perpendicularly from the first end to the second end, being 11.0 - 14.9 mm, - biofilm growing surface structures, which are internal walls that extend from the first end to the second end, and from inner part of the element towards periphery of the element, the carrier element comprising a solid longitudinal central axis to which the internal walls are attached, - at least two support structures that encircle the growing surface structures at the periphery of the element and connect the growing surface structures to each other, the support structures defining the outer boundary surface of the carrier element, whereby the support structures are spaced from each other so that apertures allowing access to the biofilm growing surface structures are formed between the support structures, the apertures in the outer boundary surface of the carrier element against the cross sectional area of a similar solid element boundary surface being over 42 %, and - every other of the internal walls is shaped as a triangle, the base of the triangle is situated at the second end of the carrier element, where it is arranged in connection with the other internal walls, and the vertex of the triangle wall is arranged in connection with the support structure at the first end of the carrier element.
Leaktight nose cone backplate for an aircraft having a first side oriented towards a radome zone in which a mobile antenna is intended to be housed, and a second side opposite the first side and oriented towards a cockpit of the aircraft, characterised in that said second side has at least one recess inside which at least one piece of cockpit equipment is intended to be located, each recess being partly delimited by a backplate structure forming a protrusion from said first side.
An image distribution method, wherein the method is applied to a node device in a distributed file system, and comprises: generating interplanetary file system, IPFS, metadata of a first image and an IPFS metadata identifier of the first image based on a plurality of pieces of block data of the first image, wherein the IPFS metadata of the first image comprises an image identifier of the first image, a name of the node device, and names and address information of the plurality of pieces of block data of the first image, and the IPFS metadata identifier of the first image is used to index the IPFS metadata of the first image; storing the plurality of pieces of block data of the first image to storage locations that correspond to the address information and that are in an IPFS repository of the node device; and adding the IPFS metadata identifier of the first image to a distributed hash table, DHT, of the distributed file system, wherein the DHT comprises IPFS metadata identifiers of images published by a plurality of node devices in the distributed file system. generating interplanetary file system, IPFS, metadata of a first image and an IPFS metadata identifier of the first image based on a plurality of pieces of block data of the first image, wherein the IPFS metadata of the first image comprises an image identifier of the first image, a name of the node device, and names and address information of the plurality of pieces of block data of the first image, and the IPFS metadata identifier of the first image is used to index the IPFS metadata of the first image; storing the plurality of pieces of block data of the first image to storage locations that correspond to the address information and that are in an IPFS repository of the node device; and adding the IPFS metadata identifier of the first image to a distributed hash table, DHT, of the distributed file system, wherein the DHT comprises IPFS metadata identifiers of images published by a plurality of node devices in the distributed file system.