mhurhangee/ep-ind-claims huggingface dataset:
A device (2, 2a, 2b;) to process data to be transmitted via a first radio module of a radio communications network, in which data to be transmitted is mapped on subcarriers and in the radio module subsequently up-converted to a radio frequency higher than the subcarrier frequencies, wherein the subcarriers are grouped into frequency subbands (18a,..., 18z), and wherein at least one subband is scalable with at least one subband parameter, and wherein in at least one subband at least two different parameters can be used, wherein the device comprises at least a processor and a memory, and is configured to: - receive at least one service request (20, 20a, 20b) for the provision of at least one service, wherein a service request includes information related to at least one subband parameter; - align for at least a first period of time at least one subband parameter of a scalable subband with at least one corresponding subband parameter of a corresponding scalable subband used or to be used by a second radio module; - allocate for a received service request (20, 20a, 20b) at least one of a time-frequency resource linked with at least one of the at least one scalable subband with an aligned subcarrier parameter suitable to provide the service request, and map data to be transmitted and related to the service request to subcarriers of a subband corresponding to the allocated time-frequency resource. - receive at least one service request (20, 20a, 20b) for the provision of at least one service, wherein a service request includes information related to at least one subband parameter; - align for at least a first period of time at least one subband parameter of a scalable subband with at least one corresponding subband parameter of a corresponding scalable subband used or to be used by a second radio module; - allocate for a received service request (20, 20a, 20b) at least one of a time-frequency resource linked with at least one of the at least one scalable subband with an aligned subcarrier parameter suitable to provide the service request, and map data to be transmitted and related to the service request to subcarriers of a subband corresponding to the allocated time-frequency resource.
A method for wireless communication, comprising: receiving, from a base station, a semi-persistent scheduling configuration that includes a plurality of downlink resources within multiple time intervals and a plurality of uplink resources within the multiple time intervals, each time interval of the multiple time intervals comprising multiple slots with different resource allocations, wherein the semi-persistent scheduling configuration further includes aggregation information for the multiple time intervals that indicates that the plurality of downlink resources and the plurality of uplink resources within each of the multiple time intervals repeats during a configured time period; receiving a plurality of downlink transmissions from the base station via the plurality of downlink resources; and transmitting a plurality of uplink transmissions to the base station via the plurality of uplink resources. receiving, from a base station, a semi-persistent scheduling configuration that includes a plurality of downlink resources within multiple time intervals and a plurality of uplink resources within the multiple time intervals, each time interval of the multiple time intervals comprising multiple slots with different resource allocations, wherein the semi-persistent scheduling configuration further includes aggregation information for the multiple time intervals that indicates that the plurality of downlink resources and the plurality of uplink resources within each of the multiple time intervals repeats during a configured time period; receiving a plurality of downlink transmissions from the base station via the plurality of downlink resources; and transmitting a plurality of uplink transmissions to the base station via the plurality of uplink resources.
A motion information acquiring apparatus comprising: a lighting device configured to illuminate an object at the same time with a first intensity-modulated light, a second intensity-modulated light, and a constant illumination light, wherein the first intensity-modulated light has a first center wavelength, λ0, and is intensity-modulated with a first reference signal, the second intensity-modulated light has a second center wavelength, λ2, and is intensity-modulated with a second reference signal that has the same wavelength as the first reference signal, but a different phase, and the constant illumination light has a third center wavelength, λ1, and a constant intensity, wherein first and second reference signals have an integer number of periods during the exposure; an image generator configured to generate a first image corresponding to the first intensity-modulated light, a second image corresponding to the second intensity-modulated light, and a third image corresponding to the constant illumination light simultaneously during the same exposure period; and a motion information acquirer configured to acquire motion information in the images on the basis of the first to third images generated by the image generator. a lighting device configured to illuminate an object at the same time with a first intensity-modulated light, a second intensity-modulated light, and a constant illumination light, wherein the first intensity-modulated light has a first center wavelength, λ0, and is intensity-modulated with a first reference signal, the second intensity-modulated light has a second center wavelength, λ2, and is intensity-modulated with a second reference signal that has the same wavelength as the first reference signal, but a different phase, and the constant illumination light has a third center wavelength, λ1, and a constant intensity, wherein first and second reference signals have an integer number of periods during the exposure; an image generator configured to generate a first image corresponding to the first intensity-modulated light, a second image corresponding to the second intensity-modulated light, and a third image corresponding to the constant illumination light simultaneously during the same exposure period; and a motion information acquirer configured to acquire motion information in the images on the basis of the first to third images generated by the image generator.
A brewing device for a machine for preparing beverages, in particular coffee or tea, the brewing device comprising: - a brewing chamber having a longitudinal axis and an opening through which a material to be brewed may be loaded and discharged; - a frame having two lateral walls arranged on opposite sides of the brewing chamber, and two fulcrum pins coaxial to each other and projecting outwards from the lateral walls; - a closing body movable relative to the frame, away from and towards a sealed closing position in which the closing body sealingly closes the opening of the brewing chamber; - a piston slidably mounted in the brewing chamber in a position axially opposite the closing body; and - an actuating device to move the closing body and comprising a motor and a cam drive arranged between the motor and the closing body; characterised in that the cam drive comprises a barrel cam mounted coaxial to the brewing chamber, between the brewing chamber and the side walls of the frame, and two cam followers slidably engaged in respective specular slots, each of which is formed in a corresponding said side wall and extends parallel to the longitudinal axis to transform, during operation, a rotation of the barrel cam about the longitudinal axis into a translational motion of the respective cam follower along the longitudinal axis. - a brewing chamber having a longitudinal axis and an opening through which a material to be brewed may be loaded and discharged; - a frame having two lateral walls arranged on opposite sides of the brewing chamber, and two fulcrum pins coaxial to each other and projecting outwards from the lateral walls; - a closing body movable relative to the frame, away from and towards a sealed closing position in which the closing body sealingly closes the opening of the brewing chamber; - a piston slidably mounted in the brewing chamber in a position axially opposite the closing body; and - an actuating device to move the closing body and comprising a motor and a cam drive arranged between the motor and the closing body; characterised in that the cam drive comprises a barrel cam mounted coaxial to the brewing chamber, between the brewing chamber and the side walls of the frame, and two cam followers slidably engaged in respective specular slots, each of which is formed in a corresponding said side wall and extends parallel to the longitudinal axis to transform, during operation, a rotation of the barrel cam about the longitudinal axis into a translational motion of the respective cam follower along the longitudinal axis.
A method for handling Voice over Internet Protocol, VoIP, traffic flows on a computer network, the method comprising: collecting traffic flow data with respect to an IP session; collecting parameters associated with the IP session, wherein the parameters comprise traffic flow bitmasks; determining whether the IP session is a VolP session; correlating IP sessions having similar parameters to the collected parameters of the VoIP session based at least in part on the traffic flow bitmasks; and creating at least one Internet Protocol Detail Record, IPDR, or Call Detail Record, CDR, based on the correlated IP session parameters. collecting traffic flow data with respect to an IP session; collecting parameters associated with the IP session, wherein the parameters comprise traffic flow bitmasks; determining whether the IP session is a VolP session; correlating IP sessions having similar parameters to the collected parameters of the VoIP session based at least in part on the traffic flow bitmasks; and creating at least one Internet Protocol Detail Record, IPDR, or Call Detail Record, CDR, based on the correlated IP session parameters.
An apparatus for sensing a rotor location, the apparatus comprising: a sensing magnet including a main magnet; and a substrate disposed above the sensing magnet, the substrate including a first sensor and a second sensor; and the first sensor and the second sensor being disposed on same first track having a circular shape on the basis of a center of the sensing magnet, the first track corresponding to the main magnet in the radial direction of the sensing magnet, wherein each of the first sensor and the second sensor includes a plurality of first Hall sensors (H1, H2) disposed apart from each other by a first angle along a circumference on the circular shaped track, and wherein the first sensor and the second sensor are disposed apart from each other by a second angle different from the first angle along the circumference on the circular shaped first track, characterized in that the sensing magnet further includes a sub-magnet, the substrate further includes a third sensor and a fourth sensor; and the third sensor and the fourth sensor being disposed on same second track having a circular shape on the basis of a center of the sensing magnet, the second track corresponding to the sub-magnet in the radial outward direction of the sensing magnet compared to the first track, wherein the third sensor includes a plurality of third Hall sensors adjacent to each other on the second track, and the fourth sensor includes a plurality of fourth Hall sensors adjacent to each other on the second track. a sensing magnet including a main magnet; and a substrate disposed above the sensing magnet, the substrate including a first sensor and a second sensor; and the first sensor and the second sensor being disposed on same first track having a circular shape on the basis of a center of the sensing magnet, the first track corresponding to the main magnet in the radial direction of the sensing magnet, wherein each of the first sensor and the second sensor includes a plurality of first Hall sensors (H1, H2) disposed apart from each other by a first angle along a circumference on the circular shaped track, and wherein the first sensor and the second sensor are disposed apart from each other by a second angle different from the first angle along the circumference on the circular shaped first track, characterized in that the sensing magnet further includes a sub-magnet, the substrate further includes a third sensor and a fourth sensor; and the third sensor and the fourth sensor being disposed on same second track having a circular shape on the basis of a center of the sensing magnet, the second track corresponding to the sub-magnet in the radial outward direction of the sensing magnet compared to the first track, wherein the third sensor includes a plurality of third Hall sensors adjacent to each other on the second track, and the fourth sensor includes a plurality of fourth Hall sensors adjacent to each other on the second track.
A water-containing composition having a pH of from 5.7 to 12.8 and comprising ion-crosslinked polyvinyl alcohol microcapsules, wherein the ion for cross-linking is persulfate.
A garment, in particular a jacket, comprising a plurality of cut parts which are each cut to size from a fabric and which are sewn together, wherein the garment has electronic components, wherein the garment comprises as electronic components at least one sensor unit for detecting a presence of an object, a control unit and an electronic signaling unit (2, 6), wherein the control unit is designed for receiving measured values from the sensor unit during an operating phase of the garment and to transmit drive signals generated as a function of the read-out measured values to the signaling unit (2, 6), the signaling unit (2, 6) being designed to output, on receipt of a predefined drive signal, a predefined signal which can be perceived by a wearer of the garment and/or by an external observer of the garment characterized in that the electronic components are integrated in the garment in such a way that the garment, starting from any point at which the electronic components are located, can be reversibly bent and/or folded within a distance of less than 3 cm, in particular less than 2 cm, at least one of the electronic components having at least one sequin formed as a printed circuit board equipped with electronic functional elements, in particular a capacitor, transistor, conductor track, coil, diode, microprocessor, microcontroller, converter circuit, loudspeaker module and/or transformer, and which has an extension of less than 3 cm, in particular less than 2 cm, in all directions, and on which contacts are provided via which it is connected to a conductive yarn connected to at least one of the cut parts, the sequin having at least one sewing recess at the border of which one of the contacts is formed, wherein the conductive yarn runs through the sewing recess while resting against the border thereof and fixes the border of the sewing recess to the cut part, wherein in particular the electronic functional elements of the sequin are encapsulated in a waterproof casing.
A magnetic resonance imaging apparatus comprising an apparatus adapted to provide content related to capture of a medical magnetic resonance image of an object, the apparatus including: an information acquiring unit, comprising a protocol acquirer configured to acquire information related to a capture protocol; a content determiner configured to determine content to be provided to the object, on a basis of said acquired information related to a capture protocol; and an output unit, including a display unit, said display unit configured to output the determined content to the object while capturing the magnetic resonance image, said content comprising: information related to a capture protocol currently being executed, said information being a pulse sequence related to current capture and a degree of execution of capture for a currently captured slice image; and information related to a capture protocol to be executed later. an information acquiring unit, comprising a protocol acquirer configured to acquire information related to a capture protocol; a content determiner configured to determine content to be provided to the object, on a basis of said acquired information related to a capture protocol; and an output unit, including a display unit, said display unit configured to output the determined content to the object while capturing the magnetic resonance image, said content comprising: information related to a capture protocol currently being executed, said information being a pulse sequence related to current capture and a degree of execution of capture for a currently captured slice image; and information related to a capture protocol to be executed later. information related to a capture protocol currently being executed, said information being a pulse sequence related to current capture and a degree of execution of capture for a currently captured slice image; and information related to a capture protocol to be executed later.
A light-diffusing element comprising: a glass core, said glass core having a diameter greater than 65 μm; and a cladding surrounding said glass core, said cladding having a lower refractive index than said glass core, said cladding including first scattering centers, said first scattering centers having a cross-section with a dimension of at least 25 nm; wherein said element exhibits light scattering losses of at least 0.1 dB/m; characterized in that the glass core comprises second scattering centers, the second scattering centers being voids distributed throughout the cross section of the glass core. a glass core, said glass core having a diameter greater than 65 μm; and a cladding surrounding said glass core, said cladding having a lower refractive index than said glass core, said cladding including first scattering centers, said first scattering centers having a cross-section with a dimension of at least 25 nm; wherein said element exhibits light scattering losses of at least 0.1 dB/m;
A display device, comprising a display panel and a backlight module, which backlight module comprises a back plate, a light guide plate, and a light strip, the light guide plate and the light strip being mounted in the back plate, the display panel being mounted on the back plate, wherein shading tapes are disposed along edges of the display panel and are provided between the backlight module and the display panel, and wherein in the edges of the display panel, an edge close to the light strip and having an extending direction parallel to that of the light strip is a light incoming edge, and each end of the light incoming edge forms a light incoming corner with an end of an adjacent edge, characterized in that, the shading tape provided at each light incoming corner, the shading tape provided at a main body, except the ends, of the light incoming edge, and the shading tape provided at a main body, except the ends, of the adjacent edge forming the light incoming corner with the light incoming edge, are separate from each other; and on a side, which faces the display panel, of the shading tapes provided at the edges of the display panel, only portions (31, 32) of the shading tapes provided at parts of the edges of the display panel except the light incoming corners are provided with an adhesive layer.
Use of a SiAlON phosphor as a scintillator for measuring a charged particle radiation, wherein the SiAION phosphor is a phosphor in which the main component is an α-type SiAlON represented by the general formula: M y Si 12-(m+n) Al (m+n) O n N 16-n, where M includes at least one element chosen from among Li, Ca, Mg, Y and lanthanides, with the exception of La and Ce, and at least one luminescence center chosen from among Eu, Ce, Tb, Yb, Sm, Dy, Er and Pr, where y = m/p, in which p is the valence of M, and where 0.3 < m < 4.5 and 0 ≤ n < 2.5, and the charged particle radiation is at least one selected from the group consisting of an α-ray, a proton, and a heavy-particle beam. wherein the SiAION phosphor is a phosphor in which the main component is an α-type SiAlON represented by the general formula: M y Si 12-(m+n) Al (m+n) O n N 16-n, where M includes at least one element chosen from among Li, Ca, Mg, Y and lanthanides, with the exception of La and Ce, and at least one luminescence center chosen from among Eu, Ce, Tb, Yb, Sm, Dy, Er and Pr, where y = m/p, in which p is the valence of M, and where 0.3 < m < 4.5 and 0 ≤ n < 2.5, and the charged particle radiation is at least one selected from the group consisting of an α-ray, a proton, and a heavy-particle beam.
Device for receiving radio-navigation signals via satellite comprising a plurality of receiving antennae which form an antenna network, for each antenna and for each satellite in sight of the device, a reception channel (200, 300) comprising demodulation means for the signals (S 1, S 2) received, a code loop and a carrier loop, the demodulation means comprising multiplication means (201, 301) in phase with a local carrier (211, 311), time correlation means (202, 302) with a local code (212, 312) and integration means (203, 303) for the signal which has been correlated in terms of time and phase, the carrier loop comprising a phase discriminator (206, 306), a carrier loop corrector (216, 316) and a numerical control operator NCO (226, 326) which is capable of providing a local carrier phase, the code loop comprising a code discriminator (204, 304), a loop corrector (214, 314) and a numerical control operator NCO (224, 324) which is capable of providing a measurement (205, 305) of the time at which the satellite transmits the signal (S 1, S 2) received, characterised in that: - each reception channel (200, 300) of the device further comprises interconnection means (208, 308) which are capable of simultaneously tilting the inputs of the numerical control operator NCO of the carrier loop and the numerical control operator NCO of the code loop of a first reception channel towards the outputs of the carrier loop corrector and the code loop corrector of a second reception channel when the signal (S 1) transmitted by the satellite is no longer received by the antenna of the first reception channel so that the first reception channel operates in an open loop, - the device further comprises means for selecting the measurement (T 1), which is derived from the measurement (205, 305) of the time at which the satellite transmits the signal received (S1, S2), from those (205, 305) supplied by each reception channel (200, 300) operating in a closed loop, and which has the highest signal-to-noise ratio or which originates from the processing channel which has the highest reception antenna gain. - each reception channel (200, 300) of the device further comprises interconnection means (208, 308) which are capable of simultaneously tilting the inputs of the numerical control operator NCO of the carrier loop and the numerical control operator NCO of the code loop of a first reception channel towards the outputs of the carrier loop corrector and the code loop corrector of a second reception channel when the signal (S 1) transmitted by the satellite is no longer received by the antenna of the first reception channel so that the first reception channel operates in an open loop, - the device further comprises means for selecting the measurement (T 1), which is derived from the measurement (205, 305) of the time at which the satellite transmits the signal received (S1, S2), from those (205, 305) supplied by each reception channel (200, 300) operating in a closed loop, and which has the highest signal-to-noise ratio or which originates from the processing channel which has the highest reception antenna gain.