mhurhangee/ep-ind-claims huggingface dataset:
A method implemented in a control node, the method comprising: receiving (1120, 1310; 1410) an initial message associated with a user equipment, UE, (706, 708) from a first node, the initial message comprising extra information being partition selection information; wherein the partition selection information includes a partition identification, or where unique information associated with one or more network partitions is not available, the partition selection information includes information associated with a service network serving the one or more network partitions without the unique information associated with the one or more network partitions served by the service network; determining (1320; 1420) whether the received message corresponds to the one or more network partitions (602a, 602b, 602c, 602b, 710, 712) based at least in part on the partition selection information; and selecting, in response to determining that the message corresponds to the one or more network partitions, a particular network partition from the one or more network partitions using the partition selection information including the partition ID; and routing the message to a second node (714, 724) associated with the selected particular network partition, or where unique information associated with the one or more network partitions is not available, selecting the service network serving the one or more network partitions using the partition selection information including the information associated with the service network; and routing the message to the selected service network. receiving (1120, 1310; 1410) an initial message associated with a user equipment, UE, (706, 708) from a first node, the initial message comprising extra information being partition selection information; wherein the partition selection information includes a partition identification, or where unique information associated with one or more network partitions is not available, the partition selection information includes information associated with a service network serving the one or more network partitions without the unique information associated with the one or more network partitions served by the service network; determining (1320; 1420) whether the received message corresponds to the one or more network partitions (602a, 602b, 602c, 602b, 710, 712) based at least in part on the partition selection information; and selecting, in response to determining that the message corresponds to the one or more network partitions, a particular network partition from the one or more network partitions using the partition selection information including the partition ID; and routing the message to a second node (714, 724) associated with the selected particular network partition, or where unique information associated with the one or more network partitions is not available, selecting the service network serving the one or more network partitions using the partition selection information including the information associated with the service network; and routing the message to the selected service network.
An information processing apparatus comprising: identifying means configured to identify, as an identification result, a printing capability of an apparatus that is a transmission destination of first image data instructed to be printed with a transparent toner; determining means configured to determine whether the apparatus as the transmission destination is able to print the first image data with the transparent toner instructed to be printed with the transparent toner based on the identification result of the identifying means; and converting means configured to convert, in response to the determining means determining the apparatus as the transmission destination is not able to print the first image data with the transparent toner, the first image data into second image data that can be printed by the apparatus as the transmission destination and is formed by placing fine dots having a predetermined size, removable by background removal processing at a time of copying, wherein the second image data is generated by combining the first image data and the dots, and wherein, in response to the determining means determining that the apparatus as the transmission destination is able to print the first image data with the transparent toner, the first image data is not converted. identifying means configured to identify, as an identification result, a printing capability of an apparatus that is a transmission destination of first image data instructed to be printed with a transparent toner; determining means configured to determine whether the apparatus as the transmission destination is able to print the first image data with the transparent toner instructed to be printed with the transparent toner based on the identification result of the identifying means; and converting means configured to convert, in response to the determining means determining the apparatus as the transmission destination is not able to print the first image data with the transparent toner, the first image data into second image data that can be printed by the apparatus as the transmission destination and is formed by placing fine dots having a predetermined size, removable by background removal processing at a time of copying, wherein the second image data is generated by combining the first image data and the dots, and wherein, in response to the determining means determining that the apparatus as the transmission destination is able to print the first image data with the transparent toner, the first image data is not converted.
A method for a transmission point of a communication network area, the communication network area constituted by a plurality of transmission points configured for coordinated transmissions to at least one user equipment, the transmission point being identified by an individual identifier, the transmission point being configured to transmit common reference signals on common channels and dedicated reference signals on dedicated channels to the at least one user equipment, the method comprising: assigning the individual identifier of the transmission point to the common reference signals on the common channels of the transmission point; and allocating, to the dedicated reference signals on the dedicated channels of the transmission point, an identifier unrelated to the individual identifier. assigning the individual identifier of the transmission point to the common reference signals on the common channels of the transmission point; and allocating, to the dedicated reference signals on the dedicated channels of the transmission point, an identifier unrelated to the individual identifier.
A damper unit having a hydraulic cylinder with a hydraulic piston which is mounted displacably therein and which is coupled to a piston rod and divides the hydraulic cylinder into two hydraulic chambers (52, 53) which are fluidically interconnected via at least one hydraulic channel, and having a pneumatic cylinder with a pneumatic piston which is mounted displacably therein and which is coupled to the piston rod and divides the pneumatic cylinder into two pneumatic chambers (62, 63) which are fluidically interconnected via at least one pneumatic channel, wherein the value of the volume change of the hydraulic chambers (52, 53) during a movement of the hydraulic piston differs and the hydraulic chambers (52, 53) are fluidically coupled to a compensating volume, characterized in that the value of the volume change of the pneumatic chambers (62, 63) during a movement of the pneumatic piston is identical.
Plate-like module (10, 12, 14, 16), comprising at least two plate-like elements (26, 28) with all-round edge seal on the circumference side and with frame (18, 20, 22, 24, 124, 224, 324) surrounding said module, said frame having a fastening means for fastening the module to a substructure such as a holder or facade, wherein the edge seal forming the frame (18, 20, 22, 24, 124, 224, 324) is extruded onto the plate-like elements (26, 28), said plate-like elements extend with their edge sections in the frame, and the fastening means is a receptacle and is designed integral with the frame, said receptacle having a slot-like or partially form-enclosing opening extending in a plane that is parallel or approximately parallel to the plane created by the module (10, 12, 14, 16).
An arrangement of multiple microbial fuel cells (MFCs) in which the MFCs are in discontinuous flow communication, characterised in that an electrical insulating material is disposed between each MFC, which inhibits the flow of electrons through the fluid and thereby disrupts fluid flow communication and creates fluidic isolation of each MFC during the time that the fluid is not moving between MFCs.
A double stranded ribonucleic acid (RNAi) agent for inhibiting expression of transthyretin in a cell, wherein said RNAi agent comprises a sense strand complementary to an antisense strand, wherein said antisense strand comprises a region complementary to SEQ ID NO:2, wherein each strand is 14 to 30 nucleotides in length, wherein substantially all of the nucleotides of the sense strand and substantially all of the nucleotides of the antisense strand are modified nucleotides, wherein the sense strand comprises no more than 8 2'-fluoro modifications; wherein the antisense strand comprises no more than 6 2'-fluoro modifications; wherein the sense strand and the antisense strand each independently comprise two phosphorothioate linkages at the 5'-terminus; and wherein the sense strand is conjugated to at least one ligand.
A base station, comprising: a reception means for receiving a first adjacent cell list from an adjacent base station, said first adjacent cell list being a list of cells adjacent to a cell managed by said adjacent base station; a control means for employing said first adjacent cell list as a second adjacent cell list, said second adjacent cell list being a list of cells adjacent to a cell managed by said base station itself; and a selection means for selecting a base station from which said first adjacent cell list is received, based on information regarding handover of said cell managed by said adjacent base station. a reception means for receiving a first adjacent cell list from an adjacent base station, said first adjacent cell list being a list of cells adjacent to a cell managed by said adjacent base station; a control means for employing said first adjacent cell list as a second adjacent cell list, said second adjacent cell list being a list of cells adjacent to a cell managed by said base station itself; and a selection means for selecting a base station from which said first adjacent cell list is received, based on information regarding handover of said cell managed by said adjacent base station.
An image display method comprising: receiving multiplexed images transmitted and/or stored as an image signal comprising successive multiplexed images (1820, 1830, 1860, 1870) characterized in that the multiplexed images include juxtaposed portions of left and right, wide field of view and narrow FOV representations of an input stereo image pair, such that the wide FOV representation includes all of the input stereo image, and the narrow FOV representation has a narrower FOV than the wide FOV representation, and includes at least a region of interest, so as to include all of the image content of the left and right, wide FOV and narrow FOV representations in fewer than four multiplexed images, in which the relationship between pixel resolution and image size for the wide FOV representation and the narrow FOV representation is such that, in relation to the region of interest, the narrow FOV representation provides a higher amount of image detail than the wide FOV representation; demutiplexing the multiplexed images to generate sets of left and right, wide FOV and narrow FOV representations; and combining and reprojecting, according to a desired display viewpoint, the narrow FOV representation and the wide FOV representation of each of the left and right images to provide respective left and right display images using primarily image content from the narrow FOV representation in respect of image regions represented by the narrow FOV representation, and using image content from the respective wide FOV representation for other image regions. receiving multiplexed images transmitted and/or stored as an image signal comprising successive multiplexed images (1820, 1830, 1860, 1870) characterized in that the multiplexed images include juxtaposed portions of left and right, wide field of view and narrow FOV representations of an input stereo image pair, such that the wide FOV representation includes all of the input stereo image, and the narrow FOV representation has a narrower FOV than the wide FOV representation, and includes at least a region of interest, so as to include all of the image content of the left and right, wide FOV and narrow FOV representations in fewer than four multiplexed images, in which the relationship between pixel resolution and image size for the wide FOV representation and the narrow FOV representation is such that, in relation to the region of interest, the narrow FOV representation provides a higher amount of image detail than the wide FOV representation; demutiplexing the multiplexed images to generate sets of left and right, wide FOV and narrow FOV representations; and combining and reprojecting, according to a desired display viewpoint, the narrow FOV representation and the wide FOV representation of each of the left and right images to provide respective left and right display images using primarily image content from the narrow FOV representation in respect of image regions represented by the narrow FOV representation, and using image content from the respective wide FOV representation for other image regions.
An RFID apparatus, comprising: - an input circuit (110, 210) having an input impedance used for receiving RF signals (105, 205); - an RF-signal converter (115, 215) configured and arranged to provide an apparatus-operating power signal (120, 220) in response to receiving the RF signals (105, 205); - an impedance circuit (140, 240) configured and arranged to provide and select impedance values in response to at least one select signal (130, 230); and characterized in - a state-machine logic circuit (125, 225) configured and arranged to provide said at least one select signal (130, 230), in response to the apparatus-operating power signal (120, 220), for selecting the impedance values and therein permit the input impedance to be changed for tuning the apparatus, wherein the RF-signal converter (115, 215) is an RF-DC converter, the apparatus further including a charge pump circuit configured and arranged to assist the RF-signal converter (115, 215) in providing the apparatus-operating power signal (120, 220) in response to receiving the RF signals (105, 205). - an input circuit (110, 210) having an input impedance used for receiving RF signals (105, 205); - an RF-signal converter (115, 215) configured and arranged to provide an apparatus-operating power signal (120, 220) in response to receiving the RF signals (105, 205); - an impedance circuit (140, 240) configured and arranged to provide and select impedance values in response to at least one select signal (130, 230); and - a state-machine logic circuit (125, 225) configured and arranged to provide said at least one select signal (130, 230), in response to the apparatus-operating power signal (120, 220), for selecting the impedance values and therein permit the input impedance to be changed for tuning the apparatus,
An apparatus comprising: - a first optical converter arranged to receive polarization encoded light from a fibre interface, to convert the polarization encoded light into dual rail form light and to output the dual rail form light into two waveguides; - a dual rail encoder configured to encode the dual rail form light from the two waveguides with payload information; - wherein an output of the dual rail encoder is coupled to the first optical converter or to a second optical converter disposed between the dual rail encoder and the fibre interface, and wherein the first optical converter or the second optical converter is coupled so as to convert the dual rail form light from the dual rail encoder into polarization encoded light and to provide this polarization encoded light into the fibre interface, characterized by the dual rail encoder being configured to modify the dual rail form light to correct, based on adjustment information concerning a fibre coupled with the fibre interface, for polarization rotation caused by the fibre, wherein the apparatus is configured to obtain, from an interface distinct from the fibre, the adjustment information concerning the fibre. - a first optical converter arranged to receive polarization encoded light from a fibre interface, to convert the polarization encoded light into dual rail form light and to output the dual rail form light into two waveguides; - a dual rail encoder configured to encode the dual rail form light from the two waveguides with payload information; - wherein an output of the dual rail encoder is coupled to the first optical converter or to a second optical converter disposed between the dual rail encoder and the fibre interface, and wherein the first optical converter or the second optical converter is coupled so as to convert the dual rail form light from the dual rail encoder into polarization encoded light and to provide this polarization encoded light into the fibre interface, characterized by the dual rail encoder being configured to modify the dual rail form light to correct, based on adjustment information concerning a fibre coupled with the fibre interface, for polarization rotation caused by the fibre, wherein the apparatus is configured to obtain, from an interface distinct from the fibre, the adjustment information concerning the fibre.
A method for producing a fluoropolymer, comprising aqueous dispersion polymerization of a fluoroolefin in the presence of 500-50,000 ppm, based on the total amount of water, of a compound of formula: wherein R 1 and R 2 each independently are a non-fluorinated, saturated C 4-12 -hydrocarbon group; and M is an alkali metal, an ammonium salt, or an amine salt; wherein the aqueous dispersion polymerization of the fluoroolefin is carried out together with - at least one non-fluorinated vinyl monomer selected from vinyl ethers and vinyl esters, and - a non-fluorinated monomer having a crosslinkable group. - at least one non-fluorinated vinyl monomer selected from vinyl ethers and vinyl esters, and - a non-fluorinated monomer having a crosslinkable group.
Device for alternating examination of a measurement object by means of MPI (="Magnetic Particle Imaging") and MRI (="Magnetic Resonance Imaging") within a magnet system comprised of a first magnetic field generating element (101;201) and a second magnetic field generating element (102;202), wherein the first magnetic field generating element (101;201) and the second magnetic field generating element (102;202) comprise electromagnetic coils disposed coaxially along a z-axis, wherein the magnet system has a first examination region for the MRI operation, in which a homogenous magnetic field is generated, wherein the magnet system has a second examination region for the MPI operation, in which a spatially strongly varying magnetic field profile is generated, the field vectors thereof being different at all spatial points with regard to direction and/or amount and having one spatial point of zero field magnitude, the device having a transport apparatus by means of which the measurement object can be moved out of the first examination region and into the second examination region and/or vice versa characterized in that, the first magnetic field generating element (101;201) is designed to be a main solenoid coil and the second magnetic field generating element (102;202) is designed to be a solenoid coil which is displaced axially in the direction of the z-axis relative to the main solenoid coil and which is operated in anti-Helmholtz configuration with respect to the main solenoid coil, and that the magnet system comprises a third magnetic field generating element for homogenizing the magnetic field in the first examination region by compensating for the field gradient generated by the second magnetic field generating element (102;202) in the examination region and for shielding the magnet system, wherein the third magnetic field generating element is disposed radially outside of the first magnetic field generating element and axially symmetric relative to an isocenter, which, during operation of the device, has a homogeneous magnetic field radially within the magnet system at an axial position z=0 and which coincides with the magnetic center of the first examination region.
A method for reducing GNSS receiver power usage in a portable electronic device, the method comprising: receiving at least one wireless signal at a portable electronic device in a signal environment, the at least one wireless signal comprising at least one Low Earth Orbiting, LEO, satellite signal; measuring at least one signal characteristic of the at least one LEO satellite signal at the portable electronic device in the signal environment; estimating an estimated signal strength of the at least one LEO satellite signal in the signal environment based on the at least one signal characteristic; comparing the estimated signal strength to an expected signal strength of the at least one LEO satellite signal to calculate an estimated signal-strength-change relative to the expected signal strength; tracking a GNSS signal at the portable electronic device, if the estimated signal-strength-change indicates an expected GNSS signal attenuation is lower than a signal attenuation threshold; and reconfiguring tracking of the GNSS signal at the portable electronic device, if the estimated signal-strength-change indicates the expected GNSS signal attenuation is greater than the signal attenuation threshold. receiving at least one wireless signal at a portable electronic device in a signal environment, the at least one wireless signal comprising at least one Low Earth Orbiting, LEO, satellite signal; measuring at least one signal characteristic of the at least one LEO satellite signal at the portable electronic device in the signal environment; estimating an estimated signal strength of the at least one LEO satellite signal in the signal environment based on the at least one signal characteristic; comparing the estimated signal strength to an expected signal strength of the at least one LEO satellite signal to calculate an estimated signal-strength-change relative to the expected signal strength; tracking a GNSS signal at the portable electronic device, if the estimated signal-strength-change indicates an expected GNSS signal attenuation is lower than a signal attenuation threshold; and reconfiguring tracking of the GNSS signal at the portable electronic device, if the estimated signal-strength-change indicates the expected GNSS signal attenuation is greater than the signal attenuation threshold.