mhurhangee/patent-ind-claim-en huggingface dataset:
A lid for a mixing and dosing container for pharmaceutical, cosmetic or similar products, for temporary fixing in a fixing device , which has a cylindrical or annular recess with a plurality of inwardly projecting, flattened teeth , wherein the lid has a central axis , a lid top disposed orthogonally to the central axis , and a lid rim adjoining the lid top , wherein the lid rim has at least one clamping edge , characterised in that the clamping edge contains a first portion (6-1) closer to the lid top and a second portion (6-2) further away from the lid top , having at least one common edge rim at least approximately parallel to the central axis , wherein the distance of the clamping edge from the central axis in the first portion (6-1) is smaller than the distance of the edge rim from the central axis in at least one section and than the distance of the clamping edge from the central axis in a corresponding section of the second portion (6-2) in the circumferential direction of the lid rim , wherein the first portion (6-1) has substantially the form of a plane surface parallel to the central axis , and/or the second portion (6-2) has substantially the form of a sector of the circumferential surface of a cylinder around the central axis .
Strainer component for a suction apparatus , which is configured to suck up impurities from a floor by means of an air flow ; wherein the strainer component comprises - a strainer part with a strainer surface ; wherein the strainer part is embodied such that the air flow passes therethrough, so that impurities from the air flow are trapped on an underside of the strainer part ; and - at least one tapping-off body , which is embodied to rest on a top side of the strainer part in several differently oriented positions; wherein the differently oriented positions are formed by differently oriented surfaces of the tapping-off body and/or by different feet of the tapping-off body ; and wherein the tapping-off body is embodied to carry out a rolling over the differently oriented positions on the top side of the strainer part as the tapping-off movement; characterised in that - the strainer component is embodied such that the tapping-off body is caused, on account of the mass inertia of the tapping-off body , to carry out a tapping-off movement on the top side of the strainer part in response to a change of movement of the strainer component , as a result of which the impurities trapped on the underside of the strainer part are tapped off from the strainer part . - a strainer part with a strainer surface ; wherein the strainer part is embodied such that the air flow passes therethrough, so that impurities from the air flow are trapped on an underside of the strainer part ; and - at least one tapping-off body , which is embodied to rest on a top side of the strainer part in several differently oriented positions; wherein the differently oriented positions are formed by differently oriented surfaces of the tapping-off body and/or by different feet of the tapping-off body ; and wherein the tapping-off body is embodied to carry out a rolling over the differently oriented positions on the top side of the strainer part as the tapping-off movement; - the strainer component is embodied such that the tapping-off body is caused, on account of the mass inertia of the tapping-off body , to carry out a tapping-off movement on the top side of the strainer part in response to a change of movement of the strainer component , as a result of which the impurities trapped on the underside of the strainer part are tapped off from the strainer part .
A medical device comprising: an inflatable balloon defining an interior surface and an exterior surface , the interior surface defining an interior space ; and a coating disposed on the exterior surface of the inflatable balloon , the coating comprising a therapeutic agent, wherein the coating has a release transition temperature within a range of about 30°C to about 35°C, wherein, when the temperature of the coating is below the release transition temperature, at least a portion of the therapeutic agent is retained in the coating , and wherein, when the temperature of the coating is above the release transition temperature, at least a portion of the therapeutic agent is released from the coating . an inflatable balloon defining an interior surface and an exterior surface , the interior surface defining an interior space ; and a coating disposed on the exterior surface of the inflatable balloon , the coating comprising a therapeutic agent, wherein the coating has a release transition temperature within a range of about 30°C to about 35°C, wherein, when the temperature of the coating is below the release transition temperature, at least a portion of the therapeutic agent is retained in the coating , and wherein, when the temperature of the coating is above the release transition temperature, at least a portion of the therapeutic agent is released from the coating .
An exothermic reaction composition, comprising: a solid reactant, wherein the solid reactant is metal oxide; at least one phase change material; a pH modulator, where the pH modulator is citric acid, tartaric acid, oxalic acid, orthophosphoric acid, sulfamic acid, sodium hydrogen sulfate, or potassium hydrogen sulfate; and wherein the reactants are encapsulated in a coating of the pH modulator. a solid reactant, wherein the solid reactant is metal oxide; at least one phase change material; a pH modulator, where the pH modulator is citric acid, tartaric acid, oxalic acid, orthophosphoric acid, sulfamic acid, sodium hydrogen sulfate, or potassium hydrogen sulfate; and wherein the reactants are encapsulated in a coating of the pH modulator.
A method comprising: receiving, by a switch device within a data center of a leaf and spine network, multicast traffic from a multicast source; in response to receiving the multicast traffic from the multicast source and without flooding the multicast traffic to the data center, sending, by the switch device and to a border device within the data center that is communicatively coupled to a multicast rendezvous point external to the data center, a source-active routing message to indicate that the switch device is receiving multicast traffic from the multicast source; receiving, by the switch device and from the border device, a response to the source-active routing message including an extended community that indicates whether there are any interested multicast receivers; and configuring, by the switch device, a forwarding engine of the switch device based on the extended community. receiving, by a switch device within a data center of a leaf and spine network, multicast traffic from a multicast source; in response to receiving the multicast traffic from the multicast source and without flooding the multicast traffic to the data center, sending, by the switch device and to a border device within the data center that is communicatively coupled to a multicast rendezvous point external to the data center, a source-active routing message to indicate that the switch device is receiving multicast traffic from the multicast source; receiving, by the switch device and from the border device, a response to the source-active routing message including an extended community that indicates whether there are any interested multicast receivers; and configuring, by the switch device, a forwarding engine of the switch device based on the extended community.
A composition comprising a modified mRNA encoding a VEGF-A polypeptide of SEQ ID NO: 2 and a citrate saline buffer, wherein the citrate saline buffer is free of divalent cations, wherein said composition is for use in a method of therapy.
A method, comprising: triggering dynamic grouping of a user equipment to a group by associating the user equipment with a group identifier of the group by the user equipment itself, by a services capability server or by an application server as a result of the user equipment initiating an attach procedure with a network, wherein the group identifier comprises from among a unique group identifier and a shared identifier at least the unique group identifier, wherein the unique group identifier comprises a combination of an application identifier and a domain identifier, the triggering is configured to trigger a network element to perform the dynamic grouping of the user equipment in which the user equipment is provisioned in the network element as a member of the group, and the dynamic grouping is based on at least one of a provided group identifier, a determination of whether a group suitable for the user equipment is already in existence, an application identifier of an application running in the user equipment, a service provider identifier, at least one feature to which a user of the user equipment is subscribed, a location of the user equipment, and at least one feature that the user equipment supports. triggering dynamic grouping of a user equipment to a group by associating the user equipment with a group identifier of the group by the user equipment itself, by a services capability server or by an application server as a result of the user equipment initiating an attach procedure with a network, wherein the group identifier comprises from among a unique group identifier and a shared identifier at least the unique group identifier, wherein the unique group identifier comprises a combination of an application identifier and a domain identifier, the triggering is configured to trigger a network element to perform the dynamic grouping of the user equipment in which the user equipment is provisioned in the network element as a member of the group, and the dynamic grouping is based on at least one of a provided group identifier, a determination of whether a group suitable for the user equipment is already in existence, an application identifier of an application running in the user equipment, a service provider identifier, at least one feature to which a user of the user equipment is subscribed, a location of the user equipment, and at least one feature that the user equipment supports.
An oil filter for an oil filtration system , wherein said oil filter is for inserting into an oil filtration unit , the oil filtration unit being provided with two or more first physical structures (18,18',18") having a first cross-sectional shape and a predefined longitudinal length (x) in relation to the central axis (A) of the oil filtration unit , wherein said oil filter comprises - a central opening extending along a central axis (B) of the oil filter , - an end surface , - two or more second physical structures (23,23',23") being angled axially in relation to each other and having a second cross sectional shape and a predefined longitudinal length (y) in relation to the central axis (B) of the oil filter and - an inner periphery of the two or more second physical structures (23,23',23") being arranged to mate with the outer periphery of the corresponding first physical structures (18,18',18") allowing the oil filter to reach its correct insertion position in the oil filtration unit by the two or more second physical structures (23,23',23") surrounding two or more first physical structures (18,18',18") at least partly, - where the end surface of the oil filter relative to the central axis (B) of the oil filter comprises the two or more second physical structures (23,23',23"), characterized in that - the two or more second physical structures (23,23',23") comprise a material as the filtering material of the oil filter , said material being natural or synthetic polymer. - a central opening extending along a central axis (B) of the oil filter , - an end surface , - two or more second physical structures (23,23',23") being angled axially in relation to each other and having a second cross sectional shape and a predefined longitudinal length (y) in relation to the central axis (B) of the oil filter and - an inner periphery of the two or more second physical structures (23,23',23") being arranged to mate with the outer periphery of the corresponding first physical structures (18,18',18") allowing the oil filter to reach its correct insertion position in the oil filtration unit by the two or more second physical structures (23,23',23") surrounding two or more first physical structures (18,18',18") at least partly, - where the end surface of the oil filter relative to the central axis (B) of the oil filter comprises the two or more second physical structures (23,23',23"), characterized in that - the two or more second physical structures (23,23',23") comprise a material as the filtering material of the oil filter , said material being natural or synthetic polymer.
Blade access arrangement for a rotor blade of a wind power plant having a tower , the arrangement comprising a platform having two sides extending from a front end to a back end of the platform tower guide means for guiding the platform against the tower , a bar arrangement comprising one or more bars connecting the platform with the tower guiding means and a hoisting arrangement for hoisting the blade access arrangement up and down, which hoisting arrangement comprises a pair of electric powered wire rope hoists connected to a wire rope, and placed on each side of the platform , characterized in that the hoisting arrangement comprises a further electric powered wire rope hoist connected to a wire rope, and placed on a hoisting arm , which arm is connected pivotably to the back end of the platform , the back end of the platform being the end closest to the tower guide means .
Basically burr-free PVC profile corner welding machine comprising: - an abutment group comprising an abutment group main body (4.1), a spring (4.2), a bearing (4.3) and a spacer (4.4) enabling the tolerance of errors on the profile dimensions, - at least two movable plates enabling the positioning and movements of the PVC profiles and leaning thereof on the abutment group, - at least two upper compressing groups and compressing rolls enabling the compressing of the PVC profiles from above and the fixation thereof on the movable plates , - a milling cutter group comprising a cutting edge connector shaft (5.1), a cutting edge (5.2), a bedding member (5.3), a main body (5.4), a movement transmitter belt (5.5) and a number 1 servo motor (5.6) enabling the treating of the welding planes of the profiles with cutting tools prior to welding process, - a horizontal channeled resistance enabling the enhancement of welding resistance and prevention of burr formation, - a number 4 servo motor enabling the movements of the at least two movable plates , - a number 3 servo motor enabling the reciprocation of the abutment group , the milling cutter group and the horizontal channeled resistance , and - a number 2 servo motor enabling up-down movement of the abutment group , the milling cutter group and the horizontal channeled resistance . - an abutment group comprising an abutment group main body (4.1), a spring (4.2), a bearing (4.3) and a spacer (4.4) enabling the tolerance of errors on the profile dimensions, - at least two movable plates enabling the positioning and movements of the PVC profiles and leaning thereof on the abutment group, - at least two upper compressing groups and compressing rolls enabling the compressing of the PVC profiles from above and the fixation thereof on the movable plates , - a milling cutter group comprising a cutting edge connector shaft (5.1), a cutting edge (5.2), a bedding member (5.3), a main body (5.4), a movement transmitter belt (5.5) and a number 1 servo motor (5.6) enabling the treating of the welding planes of the profiles with cutting tools prior to welding process, - a horizontal channeled resistance enabling the enhancement of welding resistance and prevention of burr formation, - a number 4 servo motor enabling the movements of the at least two movable plates , - a number 3 servo motor enabling the reciprocation of the abutment group , the milling cutter group and the horizontal channeled resistance , and - a number 2 servo motor enabling up-down movement of the abutment group , the milling cutter group and the horizontal channeled resistance .
A method for monitoring quality of fluids, comprising: measuring different features of a fluid with at least two different methods, wherein the at least two different methods comprise at least one optical absorption measurement and at least one electron paramagnetic resonance measurement (EPR); the method for monitoring quality of fluids characterized in that it comprises deriving a measure for the quality of the fluid and/or identifying a process of deterioration of the fluid, by combining a result of measurement of one method with a result of measurement of the other method of the at least two different methods. measuring different features of a fluid with at least two different methods, wherein the at least two different methods comprise at least one optical absorption measurement and at least one electron paramagnetic resonance measurement (EPR); the method for monitoring quality of fluids characterized in that it comprises deriving a measure for the quality of the fluid and/or identifying a process of deterioration of the fluid, by combining a result of measurement of one method with a result of measurement of the other method of the at least two different methods.
A method for a communication between a base station and a user equipment in a wireless communication system, comprising: transmitting, by the base station , data to the user equipment ; receiving, by the base station, at least one type of uplink control information (UCI) in a physical uplink control channel (PUCCH) format 3, wherein the PUCCH format 3 is transmitted by the user equipment, transmission power of the PUCCH format 3 is based on a PUCCH format dependent value, the at least one type of UCI includes acknowledgement/not-acknowledgement (ACK/NACK) information, or, ACK/NACK information and scheduling request (SR) information, and the at least one type of UCI does not include periodic channel state information (CSI) information, and wherein if the PUCCH format 3 is transmitted through two antenna ports or if a total number of bits of the at least one type of UCI is larger than 11 bits, the PUCCH format dependent value is determined based on the following equation: h nHARQ , nSR = nHARQ + nSR − 1 / 3 , wherein h(nHARQ,nSR) represents the PUCCH format dependent value, nHARQ represents a number of bits of the ACK/NACK information, and nSR is 1 or 0; or if the PUCCH format 3 is transmitted through a single antenna port and if the total number of bits of the at least one type of UCI is equal to or smaller than 11 bits, the PUCCH format dependent value is determined based on the following equation: h nHARQ , nSR = nHARQ + nSR − 1 / 2 . transmitting, by the base station , data to the user equipment ; receiving, by the base station, at least one type of uplink control information (UCI) in a physical uplink control channel (PUCCH) format 3, wherein the PUCCH format 3 is transmitted by the user equipment, transmission power of the PUCCH format 3 is based on a PUCCH format dependent value, the at least one type of UCI includes acknowledgement/not-acknowledgement (ACK/NACK) information, or, ACK/NACK information and scheduling request (SR) information, and the at least one type of UCI does not include periodic channel state information (CSI) information, and wherein if the PUCCH format 3 is transmitted through two antenna ports or if a total number of bits of the at least one type of UCI is larger than 11 bits, the PUCCH format dependent value is determined based on the following equation: h nHARQ , nSR = nHARQ + nSR − 1 / 3 , wherein h(nHARQ,nSR) represents the PUCCH format dependent value, nHARQ represents a number of bits of the ACK/NACK information, and nSR is 1 or 0; or if the PUCCH format 3 is transmitted through a single antenna port and if the total number of bits of the at least one type of UCI is equal to or smaller than 11 bits, the PUCCH format dependent value is determined based on the following equation: h nHARQ , nSR = nHARQ + nSR − 1 / 2 .
Slip ring body for the electrical contacting of an asynchronous machine, comprising at least a first slip ring and a second slip ring , to each of which at least two conductor bars are fastened, wherein the at least two slip rings are rigidly connected to one another, and wherein at least one of the slip rings has at least one aperture which is designed to allow the conductor bars of the at least one other slip ring to be fed through, characterized in that the at least one slip ring which has the at least one aperture has a lower magnetic conductivity in a region around the aperture than in a region in which region the respective at least two conductor bars are fastened thereto, wherein both regions are not manufactured from copper, wherein there is at least partially air in the region around the aperture , wherein an opening cross-sectional area of the aperture is preferably at least twice as large as a cross-sectional area of the conductor bars .
Method for stealth transmission of data from a satellite or an aircraft to a receiver that is located in a geographical zone (Z) remote from the satellite or aircraft, the method comprising the following steps, which are carried out by a transmitter on board the satellite or aircraft: - encoding the data in a form of an intensity modulation sequence that is intended to be applied to a laser beam; and - repeatedly applying the intensity modulation sequence to a laser beam (F) that is produced from the satellite or aircraft and that is directed towards the interior of the geographical zone (Z), at the same time as a direction of said laser beam is varied so that the laser beam automatically scans the entire geographical zone, using a scanning speed and an aperture angle of the laser beam such that any point in the geographical zone is illuminated by the laser beam when scanning for a total illumination time that is greater than a duration of the intensity modulation sequence; and the method comprising the following steps, which are carried out by the receiver : - on a matrix image sensor forming part of the receiver , receiving the laser beam (F) for a total detection time that is greater than the duration of the intensity modulation sequence, and detecting the intensity modulation sequence in real time; and - decoding the intensity modulation sequence in order to retrieve the data. - encoding the data in a form of an intensity modulation sequence that is intended to be applied to a laser beam; and - repeatedly applying the intensity modulation sequence to a laser beam (F) that is produced from the satellite or aircraft and that is directed towards the interior of the geographical zone (Z), at the same time as a direction of said laser beam is varied so that the laser beam automatically scans the entire geographical zone, using a scanning speed and an aperture angle of the laser beam such that any point in the geographical zone is illuminated by the laser beam when scanning for a total illumination time that is greater than a duration of the intensity modulation sequence; and the method comprising the following steps, which are carried out by the receiver : - on a matrix image sensor forming part of the receiver , receiving the laser beam (F) for a total detection time that is greater than the duration of the intensity modulation sequence, and detecting the intensity modulation sequence in real time; and - decoding the intensity modulation sequence in order to retrieve the data.