mhurhangee/ep-ind-claims huggingface dataset:
A system for transferring and applying a Media Burst Control Scheme in a PTT over Cellular PoC session, the system comprising: a session initiation request PoC client arranged to transmit a session participation request message including a Media Burst Control scheme to be used in a PoC session when the PoC session is established; a PoC server arranged to apply the Media Burst Control Scheme included in the session participation request message to the PoC session when the PoC server has received the session participation request message, and further arranged to transfer (410, 412) the session participation request message including the Media Burst Control Scheme to a receiving-side PoC client; and a receiving-side PoC client arranged to determine whether to accept the Media Burst Control Scheme included in the session participation request message when the receiving-side PoC client has received the session participation request message from the PoC server, and further arranged to transmit a response message (416, 418) according to acceptance or rejection of the Media Burst Control Scheme to the PoC server. a session initiation request PoC client arranged to transmit a session participation request message including a Media Burst Control scheme to be used in a PoC session when the PoC session is established; a PoC server arranged to apply the Media Burst Control Scheme included in the session participation request message to the PoC session when the PoC server has received the session participation request message, and further arranged to transfer (410, 412) the session participation request message including the Media Burst Control Scheme to a receiving-side PoC client; and a receiving-side PoC client arranged to determine whether to accept the Media Burst Control Scheme included in the session participation request message when the receiving-side PoC client has received the session participation request message from the PoC server, and further arranged to transmit a response message (416, 418) according to acceptance or rejection of the Media Burst Control Scheme to the PoC server.
A computer-implemented method for estimating sleep quality of a user, comprising: receiving measurement data measured by at least one sensor device during a time interval; determining a sleep start time and a sleep stop time in the measurement data; detecting from a subset of the measurement data, the subset measured between the sleep start time and the sleep stop time, one or more restless sleep signal patterns indicating a restless sleep interval longer than a first threshold duration and computing a number of the detected one or more restless sleep signal patterns; detecting, from the subset of the measurement data, one or more continuous sleep intervals not including any one of the one or more restless sleep signal patterns within a time interval longer than a second threshold duration and computing a total length of the one or more continuous sleep intervals; computing a ratio of the total length of the detected one or more continuous sleep intervals to a duration from the sleep start time to the sleep stop time, and computing a sleep quality metric on the basis of the computed ratio and the number of the detected one or more restless sleep signal patterns, the sleep quality metric indicating a quality of the user's sleep during the time interval; and outputting the sleep quality metric. receiving measurement data measured by at least one sensor device during a time interval; determining a sleep start time and a sleep stop time in the measurement data; detecting from a subset of the measurement data, the subset measured between the sleep start time and the sleep stop time, one or more restless sleep signal patterns indicating a restless sleep interval longer than a first threshold duration and computing a number of the detected one or more restless sleep signal patterns; detecting, from the subset of the measurement data, one or more continuous sleep intervals not including any one of the one or more restless sleep signal patterns within a time interval longer than a second threshold duration and computing a total length of the one or more continuous sleep intervals; computing a ratio of the total length of the detected one or more continuous sleep intervals to a duration from the sleep start time to the sleep stop time, and computing a sleep quality metric on the basis of the computed ratio and the number of the detected one or more restless sleep signal patterns, the sleep quality metric indicating a quality of the user's sleep during the time interval; and outputting the sleep quality metric.
A radio resource management, RRM, apparatus for at least one wireless communication network macrocell, a first coverage region and second coverage region being positioned within the macrocell, the RRM apparatus comprising: a processor, the processor being configured to: determine at least one scheduling block, SB, for use by at least one user device; the determination of the at least one SB being based at least in part on a first noise metric when the at least one user device is located within the first coverage region; and the determination of the at least one SB being based at least in part on a second noise metric different from the first noise metric when the at least one user device is located within the second coverage region. a processor, the processor being configured to: determine at least one scheduling block, SB, for use by at least one user device; the determination of the at least one SB being based at least in part on a first noise metric when the at least one user device is located within the first coverage region; and the determination of the at least one SB being based at least in part on a second noise metric different from the first noise metric when the at least one user device is located within the second coverage region. determine at least one scheduling block, SB, for use by at least one user device; the determination of the at least one SB being based at least in part on a first noise metric when the at least one user device is located within the first coverage region; and the determination of the at least one SB being based at least in part on a second noise metric different from the first noise metric when the at least one user device is located within the second coverage region.
Light signal device for a driverless transport system, comprising - a front element having a plurality of optically transparent light exit openings, the front element being opaque apart from the light exit openings, and - several light generating units, each having a light guide and having two light sources arranged at opposite ends of the light guide, the light guide having a plurality of light decoupling elements in order to emit light through the light exit openings, the light exit openings being arranged on the front element in a plurality of rows, and a separate light generating unit being provided for each of the rows, characterized in that each of the rows has a plurality of light exit openings in height direction, the light exit openings being arranged closer together within one of the rows than between two adjacent rows, and light is supplied to a plurality of light exit openings by a single light decoupling element of the respective light guide. - a front element having a plurality of optically transparent light exit openings, the front element being opaque apart from the light exit openings, and - several light generating units, each having a light guide and having two light sources arranged at opposite ends of the light guide, the light guide having a plurality of light decoupling elements in order to emit light through the light exit openings, the light exit openings being arranged on the front element in a plurality of rows, and a separate light generating unit being provided for each of the rows, characterized in that each of the rows has a plurality of light exit openings in height direction, the light exit openings being arranged closer together within one of the rows than between two adjacent rows, and light is supplied to a plurality of light exit openings by a single light decoupling element of the respective light guide. the light guide having a plurality of light decoupling elements in order to emit light through the light exit openings, the light exit openings being arranged on the front element in a plurality of rows, and a separate light generating unit being provided for each of the rows, characterized in that each of the rows has a plurality of light exit openings in height direction, the light exit openings being arranged closer together within one of the rows than between two adjacent rows, and light is supplied to a plurality of light exit openings by a single light decoupling element of the respective light guide.
Sound transducer for receiving waterborne sound pressure waves, wherein the sound transducer comprises an acoustic piezocomposite transducer element (102, 202) with a ceramic filament (103, 203) or a plurality of ceramic filaments (103, 203) and a filling compound (104, 204), wherein the ceramic filament or the ceramic filaments is or are surrounded by the filling compound, wherein a first pressure plate made of glass-fibre-reinforced plastic is arranged upstream of the acoustic piezocomposite transducer element (102, 202) in a sound pressure direction (105, 205), with the result that an impinging sound pressure is impressed from the pressure plate onto the ceramic filament or the ceramic filaments, thus increasing the sensitivity of the sound transducer, characterized in that the volume fraction V of the ceramic filaments is between 20% and 30%.
A magnetic resonance imaging apparatus, comprising: a coil assembly comprising a superconductive bore-type magnet with a horizontal axis; and a helium container which is configured to accommodate the coil assembly and helium, CHARACTERISED BY the helium container comprising a partition wall configured to surround only a lower portion of an outer circumference of the coil assembly, wherein the helium in liquid state is accommodated in a first space formed between the partition wall and the coil assembly, and a cooling apparatus configured to cool the helium into the helium in the liquid state and to introduce the helium cooled by the cooling apparatus in the liquid state at least into the first space, wherein, in response to the first space being substantially filled with the helium in the liquid state, the helium in the liquid state is configured to overflow from the first space down into a second space under the partition wall in the helium container. a coil assembly comprising a superconductive bore-type magnet with a horizontal axis; and a helium container which is configured to accommodate the coil assembly and helium, CHARACTERISED BY the helium container comprising a partition wall configured to surround only a lower portion of an outer circumference of the coil assembly, wherein the helium in liquid state is accommodated in a first space formed between the partition wall and the coil assembly, and a cooling apparatus configured to cool the helium into the helium in the liquid state and to introduce the helium cooled by the cooling apparatus in the liquid state at least into the first space, wherein, in response to the first space being substantially filled with the helium in the liquid state, the helium in the liquid state is configured to overflow from the first space down into a second space under the partition wall in the helium container.
Pump, in particular for domestic appliances such as dishwashers, comprising an impeller (19, 119) for conveying fluid or water, the impeller rotating within a pump chamber having a pump base (15a, b), wherein the pump is provided with the impeller to function as a centrifugal pump with the fluid to be conveyed being suckedin in a central axial manner and flowing out in a radial manner, wherein the impeller with its bottom surface extends above the pump base (15a, b), wherein one or several fixed flow directing blades (25, 125) are arranged radially outside the impeller (19, 119), characterized in that the flow directing blades extend in a helicoidal manner with a pitch extending in the rotational direction of the impeller away from the pump base (15a, b), wherein at least one flow directing blade (25a, 125a) extends as far as up to the bottom surface (20, 120) of the impeller (19, 119).
Process for manufacture of a Pelton runner, where several discs (4, 4', 4") with the contour of the said Pelton runner are layered on top of one another and joined to one another, characterized in that the discs (4, 4', 4") are welded to one another or joined by brazing the supporting surfaces between the individual discs (4, 4', 4"), where the individual discs (4, 4', 4") are joined together, at least at parts of the surface contour of the Pelton runner, by laminar welding of the of the discs (4, 4', 4").
A core-shell polymeric scaffold comprising: a core component having a first porosity; and a shell component surrounding the core component and having a second porosity, the second porosity differing from the first porosity, wherein the core component comprises a first polymer network formed from one or more monomers of Formula; one or more monomers of Formula,, or; one or more monomers comprising an alkyne moiety; and one or more monomers comprising an azide moiety: and wherein R 1, R 2, and R 3 are independently -H, -CH 3, -CH 2 CH 3, or M +; R 4 is -H; R 5 is -H, -OH, -OCH 3, -OCH 2 CH 3, -CH 3, -CH 2 CH 3, -NH 2, NHCH 3, -CH 2 CH 2 NHCH 3, -N(CH 3) 2, or -CH 2 CH 2 N(CH 2 CH 3) 2; R 6 is -H, -CH 3, or -CH 2 CH 3, -(CH 3) 2, or -(CH 2 CH 3) 2; R 7 is -H or -CH 3; R 8 is -(CH 2) a -, -(CH 2 CH 2 O) b -, or -(CH 2 OCH 2) b -; R 9 is -H, -CH 3, or a C2-C20 alkyl; R 10 is -H, -C CH 3, or -C CH 2 CH 3; R 11 and R 12 are independently -OH or -NH 2; M + is a monovalent cation; X and Y are independently -O- or -NH-; Z is -H, -CH 3, -(CH 3) 2, -(CH 2 CH 3) 2, or a is an integer from 0 to 20; b is an integer from 0 to 2000; n is an integer between 1 and 2000; and m and p are independently integers ranging from 1 to 20; and wherein the monomer of Formula has at least one terminus comprising -OH or -NH 2; and wherein the shell component comprises a second polymer network formed from one or more monomers of Formula; one or more monomers of Formula,, or; one or more monomers comprising an alkyne moiety; and one or more monomers comprising an azide moiety. a core component having a first porosity; and a shell component surrounding the core component and having a second porosity, the second porosity differing from the first porosity, wherein the core component comprises a first polymer network formed from one or more monomers of Formula; one or more monomers of Formula,, or; one or more monomers comprising an alkyne moiety; and one or more monomers comprising an azide moiety: and wherein R 1, R 2, and R 3 are independently -H, -CH 3, -CH 2 CH 3, or M +; R 4 is -H; R 5 is -H, -OH, -OCH 3, -OCH 2 CH 3, -CH 3, -CH 2 CH 3, -NH 2, NHCH 3, -CH 2 CH 2 NHCH 3, -N(CH 3) 2, or -CH 2 CH 2 N(CH 2 CH 3) 2; R 6 is -H, -CH 3, or -CH 2 CH 3, -(CH 3) 2, or -(CH 2 CH 3) 2; R 7 is -H or -CH 3; R 8 is -(CH 2) a -, -(CH 2 CH 2 O) b -, or -(CH 2 OCH 2) b -; R 9 is -H, -CH 3, or a C2-C20 alkyl; R 10 is -H, -C CH 3, or -C CH 2 CH 3; R 11 and R 12 are independently -OH or -NH 2; M + is a monovalent cation; X and Y are independently -O- or -NH-; Z is -H, -CH 3, -(CH 3) 2, -(CH 2 CH 3) 2, or a is an integer from 0 to 20; b is an integer from 0 to 2000; n is an integer between 1 and 2000; and m and p are independently integers ranging from 1 to 20; and wherein the monomer of Formula has at least one terminus comprising -OH or -NH 2; and wherein the shell component comprises a second polymer network formed from one or more monomers of Formula; one or more monomers of Formula,, or; one or more monomers comprising an alkyne moiety; and one or more monomers comprising an azide moiety.
A method in a mobile terminal for requesting access to a wireless communication system, the method comprising - receiving broadcasted system information that indicates a first available resource of a contention based channel, and characterised in comprising - deriving (203,502) a second available resource of the contention based channel based on the first available resource of the contention based channel, wherein the second available resource is indicated in an ordered list of resources as a function of a position of the first available resource in the ordered list, and - transmitting (204,503) an access request preamble mapped to the second available resource to access the wireless communication system. - receiving broadcasted system information that indicates a first available resource of a contention based channel, and characterised in comprising - deriving (203,502) a second available resource of the contention based channel based on the first available resource of the contention based channel, wherein the second available resource is indicated in an ordered list of resources as a function of a position of the first available resource in the ordered list, and - transmitting (204,503) an access request preamble mapped to the second available resource to access the wireless communication system.
A fingerprint acquisition system, comprising a touch surface configured so as to provide location information (InfoLoc) for at least one contact point of a finger having a fingerprint in contact with the touch surface, the system comprising: - a TFT panel, arranged underneath the touch surface, comprising a detection array comprising M rows at least some of which comprise detection cells (P(i,j)) for detecting an image representative of the fingerprint, a row-addressing system being integrated into the array, and configured so as to activate, row after row, the detection cells (P(i,j)) of a corresponding row in a scanning direction of the rows, - a calculation device (CALC), configured so as to receive the location information (InfoLoc), and so as to command the addressing system to address the array starting from an address range grouping together a subset of rows from among the M rows of the array and including the rows arranged before and after the contact point in the scanning direction of the rows of the array, characterized in that the addressing system comprises a shift register comprising M stages, each of the M stages having an output connected to a corresponding row input, and an additional shift register, comprising N stages, called additional stages, where N < M, the additional shift register being connected to the row inputs by way of the shift register, each additional stage being connected to the first stage of a group of stages of the shift register. - a TFT panel, arranged underneath the touch surface, comprising a detection array comprising M rows at least some of which comprise detection cells (P(i,j)) for detecting an image representative of the fingerprint, a row-addressing system being integrated into the array, and configured so as to activate, row after row, the detection cells (P(i,j)) of a corresponding row in a scanning direction of the rows, - a calculation device (CALC), configured so as to receive the location information (InfoLoc), and so as to command the addressing system to address the array starting from an address range grouping together a subset of rows from among the M rows of the array and including the rows arranged before and after the contact point in the scanning direction of the rows of the array,
A valve driver system forming part of a fieldbus controller for driving a plurality of valves of a valve manifold, the valve driver system comprising: a plurality of valve drivers, wherein each valve driver (20, 22, 24, 26) is configured to drive a zone of one or more valves of the manifold; and, a power board internal to the fieldbus controller that separately powers the respective valve drivers (20, 22, 24, 26) such that the valve drivers (20, 22, 24, 26) are powered separately with a separate power source that can individually power the valve driver (20, 22, 24, 26); further including a power connector connected to the power board that includes separate V+ (pluses) pins for the respective valve drivers (20, 22, 24, 26) and a common V- (minus) ground pin; the power connector being configured to allow for separate power inputs via the respective V+ (pluses) pins and V- (minus) pin so that each valve driver (20, 22, 24, 26) receives its own power, thereby enabling the valve drivers (20, 22, 24, 26) to be powered individually. a plurality of valve drivers, wherein each valve driver (20, 22, 24, 26) is configured to drive a zone of one or more valves of the manifold; and, a power board internal to the fieldbus controller that separately powers the respective valve drivers (20, 22, 24, 26) such that the valve drivers (20, 22, 24, 26) are powered separately with a separate power source that can individually power the valve driver (20, 22, 24, 26); further including a power connector connected to the power board that includes separate V+ (pluses) pins for the respective valve drivers (20, 22, 24, 26) and a common V- (minus) ground pin; the power connector being configured to allow for separate power inputs via the respective V+ (pluses) pins and V- (minus) pin so that each valve driver (20, 22, 24, 26) receives its own power, thereby enabling the valve drivers (20, 22, 24, 26) to be powered individually.