mhurhangee/patent-ind-claim-en huggingface dataset:
A display device capable of being adjusted between flat and curved comprising: a display panel module which is flexible; and a backcover system comprising at least one angle block module ; and a driving system ; wherein the angle block module comprises a plurality of links including first links connected to the driving system , wherein the display device is configured such that moving the first links away from the driving system increases the curvature of the display device and moving the first links closer to the driving system decreases the curvature of the display device , wherein the driving system comprises a gear as a driver component delivering rotary motion into the links , wherein the gear comprises guide grooves which are connected to the first links , the angle block module further comprises: multiple block units arranged in a row, each block unit having an angle block ; a link of the plurality of links at both long sides of the angle block ; and a shaft bearing connecting the links of each block unit to links of an adjacent block unit , wherein the angle block module is disposed at each of both left and right sides with the driving system at the centre of a width of a display panel module , and wherein the block units (211a, 211b, and 211c) of the angle block module are fixed to a backcover of the display panel module . a display panel module which is flexible; and a backcover system comprising at least one angle block module ; and a driving system ; wherein the angle block module comprises a plurality of links including first links connected to the driving system , wherein the display device is configured such that moving the first links away from the driving system increases the curvature of the display device and moving the first links closer to the driving system decreases the curvature of the display device , wherein the driving system comprises a gear as a driver component delivering rotary motion into the links , wherein the gear comprises guide grooves which are connected to the first links , the angle block module further comprises: multiple block units arranged in a row, each block unit having an angle block ; a link of the plurality of links at both long sides of the angle block ; and a shaft bearing connecting the links of each block unit to links of an adjacent block unit , wherein the angle block module is disposed at each of both left and right sides with the driving system at the centre of a width of a display panel module , and wherein the block units (211a, 211b, and 211c) of the angle block module are fixed to a backcover of the display panel module . multiple block units arranged in a row, each block unit having an angle block ; a link of the plurality of links at both long sides of the angle block ; and a shaft bearing connecting the links of each block unit to links of an adjacent block unit , wherein the angle block module is disposed at each of both left and right sides with the driving system at the centre of a width of a display panel module , and
A myostatin inhibitor that is selective for myostatin for use in a method for treating spinal muscular atrophy (SMA) in a subject, wherein the selective myostatin inhibitor is to be administered in an amount effective to treat SMA, wherein the subject is: (i) on a SMN corrector therapy or is treated with a SMN corrector therapy within six months of the myostatin inhibitor; and (ii) in a growth phase and/or in need of receiving a long-term therapy, wherein optionally the long-term therapy involves life-time management of SMA, wherein the selective myostatin inhibitor is: (a) an antibody, or antigen-binding portion thereof, that binds pro- or latent myostatin, thereby inhibiting activation of myostatin; or (b) an antibody, or antigen-binding portion thereof, that binds mature myostatin; and wherein the SMN corrector therapy comprises: i) a splice modifier; ii) an SMN gene replacement or gene therapy; iii) an SMN transcription enhancer; iv) an SMN protein translation enhancer; or, v) an SMN protein stabilizer. (a) an antibody, or antigen-binding portion thereof, that binds pro- or latent myostatin, thereby inhibiting activation of myostatin; or (b) an antibody, or antigen-binding portion thereof, that binds mature myostatin; and wherein the SMN corrector therapy comprises: i) a splice modifier; ii) an SMN gene replacement or gene therapy; iii) an SMN transcription enhancer; iv) an SMN protein translation enhancer; or, v) an SMN protein stabilizer. i) a splice modifier; ii) an SMN gene replacement or gene therapy; iii) an SMN transcription enhancer; iv) an SMN protein translation enhancer; or, v) an SMN protein stabilizer.
A compound of Formula (I): wherein R 1 is a group selected from one of Formulae (II) or (III) shown below: or an acceptable salt, solvate or hydrate thereof.
A liquid fertilizer composition comprising a source of at least one nutrient suspended in a liquid medium, a thickener, a dispersant, and a solids content of at least about 20% by weight, the composition being substantially free of styrene (meth)acrylic copolymer, wherein the nutrient source comprises: (i) a phosphorous content of 20% to 30% by weight, a zinc content of 15% to 25% by weight, a manganese content of 1% to 10% by weight, and a nitrogen content of 0.5% to 8% by weight, based on the total weight of the source of at least one nutrient taken as 100% by weight; or (ii) a zinc content of 30% to 50% by weight, a manganese content of 5% to 15% by weight, and an iron content of 0.1% to 5% by weight, based on the total weight of the source of at least one nutrient taken as 100% by weight. (i) a phosphorous content of 20% to 30% by weight, a zinc content of 15% to 25% by weight, a manganese content of 1% to 10% by weight, and a nitrogen content of 0.5% to 8% by weight, based on the total weight of the source of at least one nutrient taken as 100% by weight; or (ii) a zinc content of 30% to 50% by weight, a manganese content of 5% to 15% by weight, and an iron content of 0.1% to 5% by weight, based on the total weight of the source of at least one nutrient taken as 100% by weight.
A method of preparing a lyocell material for a cigarette filter, comprising: (S1) spinning a lyocell spinning dope including cellulose pulp and an N-methylmorpholine-N-oxide (NMMO) aqueous solution having an NMMO to water weight ratio of 93:7 to 85:15, in which a concentration of the cellulose pulp is 8 to 11%; (S2) coagulating the lyocell spinning dope spun in (S1), thus obtaining a coagulated lyocell multifilament; (S3) water-washing the lyocell multifilament coagulated in (S2) ; (S4) oil-treating and drying the lyocell multifilament water-washed in (S3); and (S5) crimping the lyocell multifilament oil-treated in (S4), thus preparing a crimped tow, wherein (S1) to (S5) are performed so that the crimped tow has a tensile strength of 1 to 2 g/d, wherein in (S1), the spinning is performed at 100 to 110°C, wherein in (S2), the coagulating comprises primary coagulation using air quenching (Q/A) by supplying the spun lyocell spinning dope with cold air and secondary coagulation by placing the primarily coagulated spinning dope in a coagulation solution in which the temperature is 30°C or less, wherein air quenching is perfomed by supplying the spun lyocell spinning dope with a cold air at a temperature of 4 to 15°C and air flow of 70 to 90 M 3 /hr, wherein (S1) to (S4) are performed so that the strength of the monofilaments separated from the lyocell multifilament obtained in (S4) is 2.0 to 3.5 g/d. (S1) spinning a lyocell spinning dope including cellulose pulp and an N-methylmorpholine-N-oxide (NMMO) aqueous solution having an NMMO to water weight ratio of 93:7 to 85:15, in which a concentration of the cellulose pulp is 8 to 11%; (S2) coagulating the lyocell spinning dope spun in (S1), thus obtaining a coagulated lyocell multifilament; (S3) water-washing the lyocell multifilament coagulated in (S2) ; (S4) oil-treating and drying the lyocell multifilament water-washed in (S3); and (S5) crimping the lyocell multifilament oil-treated in (S4), thus preparing a crimped tow, wherein (S1) to (S5) are performed so that the crimped tow has a tensile strength of 1 to 2 g/d, wherein in (S1), the spinning is performed at 100 to 110°C, wherein in (S2), the coagulating comprises primary coagulation using air quenching (Q/A) by supplying the spun lyocell spinning dope with cold air and secondary coagulation by placing the primarily coagulated spinning dope in a coagulation solution in which the temperature is 30°C or less, wherein air quenching is perfomed by supplying the spun lyocell spinning dope with a cold air at a temperature of 4 to 15°C and air flow of 70 to 90 M 3 /hr,
A combustor comprising: a shell bounding at least a portion of a combustion chamber , the shell including a first wall having an orifice extending between a first side surface of the first wall and an opposed second side surface of the first wall and opening to the combustion chamber ; a grommet (80; 180; 280; 380; 480; 580) including a body portion and a lip (86; 186; 386; 486; 586) projecting from the body portion , the body portion and the lip (86; 186; 386; 486; 586) carrying a surface (88; 188; 388; 488; 588) that extends around a passage (82; 182) through the grommet (80; 180; 280; 380; 480; 580), at least a portion of the lip (86; 186; 386; 486; 586) extending within the orifice of the wall of the shell ; and a radial gap (G) between the lip (86; 186; 386; 486; 586) and the first wall of the shell with respect to a central axis (A G ) of the passage (82; 182); characterised in that : the lip (86; 186; 386; 486; 586) extends beyond the orifice . a shell bounding at least a portion of a combustion chamber , the shell including a first wall having an orifice extending between a first side surface of the first wall and an opposed second side surface of the first wall and opening to the combustion chamber ; a grommet (80; 180; 280; 380; 480; 580) including a body portion and a lip (86; 186; 386; 486; 586) projecting from the body portion , the body portion and the lip (86; 186; 386; 486; 586) carrying a surface (88; 188; 388; 488; 588) that extends around a passage (82; 182) through the grommet (80; 180; 280; 380; 480; 580), at least a portion of the lip (86; 186; 386; 486; 586) extending within the orifice of the wall of the shell ; and a radial gap (G) between the lip (86; 186; 386; 486; 586) and the first wall of the shell with respect to a central axis (A G ) of the passage (82; 182); characterised in that : the lip (86; 186; 386; 486; 586) extends beyond the orifice .
Method for authenticating a user device with a server implementing an application, called application server , said method comprising: - the device obtaining (E2) an identifier, called secondary identifier, allowing the device to receive notifications in relation to the application; - the device, identified by an identifier, called main identifier, associated with the device by way of a security module, sending (E3) a signalling message comprising the main identifier in a header of the message as original address of the message and the secondary identifier carried by a payload of the message; - said device receiving (E4) a notification in relation to the application addressed to the device identified by the secondary identifier in push mode, said notification comprising the main identifier and an authenticator, and the sending of which was commanded by the application server; - said device sending (E5) an authentication request to the application server, said request comprising the main identifier and the authenticator that are extracted from the notification, said device being authenticated by the application server by way of said main identifier in association with said secondary identifier. - the device obtaining (E2) an identifier, called secondary identifier, allowing the device to receive notifications in relation to the application; - the device, identified by an identifier, called main identifier, associated with the device by way of a security module, sending (E3) a signalling message comprising the main identifier in a header of the message as original address of the message and the secondary identifier carried by a payload of the message; - said device receiving (E4) a notification in relation to the application addressed to the device identified by the secondary identifier in push mode, said notification comprising the main identifier and an authenticator, and the sending of which was commanded by the application server; - said device sending (E5) an authentication request to the application server, said request comprising the main identifier and the authenticator that are extracted from the notification, said device being authenticated by the application server by way of said main identifier in association with said secondary identifier.
A micromechanical measuring system for measuring strain on macroscopic objects, comprising a substrate , at least two connecting elements for fixing the measuring system to the measuring object to be examined and/or to be monitored, at least one connecting element being connected to the substrate of the measuring system so as to be fixed at the frame and at least one connecting element being directly or indirectly connected to the input of a mechanical amplifier , and the mechanical amplifier being part of the micromechanical measuring system and configured to amplify the signal of the strain-induced mechanical displacement, and an electromechanical signal converter , characterized in that the electromechanical signal converter is configured to discretize and convert the amplified mechanical displacement into an electrical digital binary coded signal, the electromechanical signal converter being designed in the form of a micromechanical analog-to-digital converter (3.1), the analog-to-digital converter (3.1) comprising a system of finger electrodes and counter electrodes that can be displaced relative to one another, by way of which a binary code having a defined transmission function is implemented, is configured so as to convert the amplified mechanical displacement into a discretized electrical digital binary coded signal.
A microfluidic device for separating a phase in a specimen, the microfluidic device comprising a trapping area for capturing the phase of interest, whereby the trapping area is connected on two sides to a first duct and a second duct respectively, both integrated in the microfluidic device, and whereby the microfluidic device further - comprises a first integrated input (I1) connected to the first duct to take the specimen into the trapping area to separate the phase of interest, - comprises a first integrated output (U1) connected to the second duct to discharge the rest of the specimen, once it has flowed through the trapping area - has a second integrated output (U2) connected to a selected duct selected from the first duct or the second duct , for eluting the separated phase out of the device via this output, - has a second integrated input connected to a first duct or a second duct that is not the selected duct, to connect to a pump to be able to pump the separated phase out of the device, and - has a third integrated input , also connected to the selected duct via a connection located between the connection of the second integrated output (U2) on the selected duct and the microfluidic trapping area and via which the liquid flow during separation of the phase and elution of the phase may be controlled, characterised in that the third integrated input , when the microfluidic device is in operation and during elution of the phase of interest, is connected in a circuit to the first integrated input (I1) when the third integrated input is in the first duct or to the first integrated output (U1) when the third integrated input is in the second duct , thus preventing loss of specimen via the first integrated input (I1) or via the first integrated output (U1) respectively during elution. - comprises a first integrated input (I1) connected to the first duct to take the specimen into the trapping area to separate the phase of interest, - comprises a first integrated output (U1) connected to the second duct to discharge the rest of the specimen, once it has flowed through the trapping area - has a second integrated output (U2) connected to a selected duct selected from the first duct or the second duct , for eluting the separated phase out of the device via this output, - has a second integrated input connected to a first duct or a second duct that is not the selected duct, to connect to a pump to be able to pump the separated phase out of the device, and - has a third integrated input , also connected to the selected duct via a connection located between the connection of the second integrated output (U2) on the selected duct and the microfluidic trapping area and via which the liquid flow during separation of the phase and elution of the phase may be controlled,
A magnetometer-based metal detection device , comprising: a proximal portion , a rigid central body and a flexible distal portion ; at least one magnetometer positioned within or on the distal portion , wherein the at least one magnetometer includes at least one sensor capable of sensing a magnetic field; a user interface ; and a processor communicatively coupled with the at least one magnetometer , wherein the processor is configured to: receive magnetic field data from a communication interface of the at least one magnetometer , and provide a signal to the user interface to provide or change an output in response to a change in a relative proximity of the at least one magnetometer to a metal object based on the magnetic field data, characterised in that: the rigid central body is a tubular member having a diameter between 2 and 20 mm and a length between 1 and 60 cm; and in that the magnetometer-based metal detection device further comprises an actuator positioned within or on the proximal portion , wherein the actuator engages one or more wires extending through the rigid central body , wherein the one or more wires is connected to the flexible distal portion , and wherein the flexible distal portion is configured to be moved via the one or more wires in response to an actuation of the actuator . a proximal portion , a rigid central body and a flexible distal portion ; at least one magnetometer positioned within or on the distal portion , wherein the at least one magnetometer includes at least one sensor capable of sensing a magnetic field; a user interface ; and a processor communicatively coupled with the at least one magnetometer , wherein the processor is configured to: receive magnetic field data from a communication interface of the at least one magnetometer , and provide a signal to the user interface to provide or change an output in response to a change in a relative proximity of the at least one magnetometer to a metal object based on the magnetic field data, characterised in that: the rigid central body is a tubular member having a diameter between 2 and 20 mm and a length between 1 and 60 cm; and in that the magnetometer-based metal detection device further comprises an actuator positioned within or on the proximal portion , wherein the actuator engages one or more wires extending through the rigid central body , wherein the one or more wires is connected to the flexible distal portion , and wherein the flexible distal portion is configured to be moved via the one or more wires in response to an actuation of the actuator . the rigid central body is a tubular member having a diameter between 2 and 20 mm and a length between 1 and 60 cm; and in that the magnetometer-based metal detection device further comprises an actuator positioned within or on the proximal portion , wherein the actuator engages one or more wires extending through the rigid central body , wherein the one or more wires is connected to the flexible distal portion , and wherein the flexible distal portion is configured to be moved via the one or more wires in response to an actuation of the actuator .
A data acquisition method of acquiring and latching data with a timing based on an input signal supplied to an interrupt input port , the method comprising: acquiring and retaining the data through an input port which is different from the interrupt input port with a timing of when an edge of the input signal is detected, and starting a timer; and at the time of expiration of the timer, if the level of the input signal is a first level that is unchanged from start of the timer, latching the retained data and, if the level of the input signal is a second level that is changed from the start of the timer, discarding the retained data. acquiring and retaining the data through an input port which is different from the interrupt input port with a timing of when an edge of the input signal is detected, and starting a timer; and at the time of expiration of the timer, if the level of the input signal is a first level that is unchanged from start of the timer, latching the retained data and, if the level of the input signal is a second level that is changed from the start of the timer, discarding the retained data.
A method for transmitting a configured grant, CG, confirmation message by a user equipment, UE, in a wireless communication system , the method comprising: receiving (S1101, S1102, S1201) information related to a CG from a network ; triggering (S1103, S1202) a CG confirmation upon receiving (S1102) a CG activation command from the network , wherein, based on data to be transmitted on a new transmission opportunity being available and the new transmission opportunity being indicated by the CG, the triggered CG confirmation is canceled (S1105), wherein, based on the data to be transmitted on the new transmission opportunity being available and the new transmission opportunity being indicated by a dynamic grant, the triggered CG confirmation is not canceled; and based on there being a CG confirmation not canceled, transmitting (S1106, S1203) the CG confirmation message for the triggered CG confirmation on the new transmission opportunity. receiving (S1101, S1102, S1201) information related to a CG from a network ; triggering (S1103, S1202) a CG confirmation upon receiving (S1102) a CG activation command from the network , wherein, based on data to be transmitted on a new transmission opportunity being available and the new transmission opportunity being indicated by the CG, the triggered CG confirmation is canceled (S1105), wherein, based on the data to be transmitted on the new transmission opportunity being available and the new transmission opportunity being indicated by a dynamic grant, the triggered CG confirmation is not canceled; and based on there being a CG confirmation not canceled, transmitting (S1106, S1203) the CG confirmation message for the triggered CG confirmation on the new transmission opportunity.
An aliphatic polyamide composition comprising: an aliphatic polyamide polymer and from 30 wt.% to 60 wt.% of glass fiber, relative to the total weight of the polyamide composition, wherein the glass fiber has: a dielectric constant at 1 MHz measured according to ASTM D150 of from 5.1 to 5.5, preferably from 5.2 to 5.4, and a tensile modulus measured according to ASTM D2343 of from 75 GPa to 100 GPa. an aliphatic polyamide polymer and from 30 wt.% to 60 wt.% of glass fiber, relative to the total weight of the polyamide composition, wherein the glass fiber has: a dielectric constant at 1 MHz measured according to ASTM D150 of from 5.1 to 5.5, preferably from 5.2 to 5.4, and a tensile modulus measured according to ASTM D2343 of from 75 GPa to 100 GPa. a dielectric constant at 1 MHz measured according to ASTM D150 of from 5.1 to 5.5, preferably from 5.2 to 5.4, and a tensile modulus measured according to ASTM D2343 of from 75 GPa to 100 GPa.