mhurhangee/ep-ind-claims huggingface dataset:
An arrangement applicable to 4.5G or 5G base station testing, wherein the arrangement comprises - an antenna arrangement (10, 32) comprising a plurality of antenna elements (11-15, 20, 33) in a planar arrangement or close to a planar arrangement where a height of an antenna element (11-15, 20, 33) can be individually tuned in view of other antenna elements, - a test system processor controlling the amplitude and phase of the plurality of antenna elements (11-15, 20, 33), and - the plurality of antenna elements (11-15, 20, 33) are placed in substantially symmetrical fashion in view of a center spot of the antenna arrangement or in view to a center line splitting the antenna arrangement in half, wherein - the test system processor is configured to divide the plurality of the antenna elements (11-15, 20, 33) into sub-arrays, where the sub-arrays locate in bands surrounding one another with a substantially mutual center spot, the antenna elements (11-15, 20, 33) in a single sub-array forming a substantially symmetrical arrangement in view of a center spot or a center line, wherein - the test system processor is configured to control all antenna elements (11-15, 20, 33) in the same sub-array with a predetermined amplitude and phase, and - the test system processor is configured to switch on and control dedicated sub-arrays among the whole antenna arrangement, and to switch the rest of the sub-arrays off, applied in a predetermined use frequency, enabling reswitching of the sub-arrays on or off in a given time instant during wideband testing of a 4.5G or 5G base station. - an antenna arrangement (10, 32) comprising a plurality of antenna elements (11-15, 20, 33) in a planar arrangement or close to a planar arrangement where a height of an antenna element (11-15, 20, 33) can be individually tuned in view of other antenna elements, - a test system processor controlling the amplitude and phase of the plurality of antenna elements (11-15, 20, 33), and - the plurality of antenna elements (11-15, 20, 33) are placed in substantially symmetrical fashion in view of a center spot of the antenna arrangement or in view to a center line splitting the antenna arrangement in half, wherein - the test system processor is configured to divide the plurality of the antenna elements (11-15, 20, 33) into sub-arrays, where the sub-arrays locate in bands surrounding one another with a substantially mutual center spot, the antenna elements (11-15, 20, 33) in a single sub-array forming a substantially symmetrical arrangement in view of a center spot or a center line, wherein - the test system processor is configured to control all antenna elements (11-15, 20, 33) in the same sub-array with a predetermined amplitude and phase, and - the test system processor is configured to switch on and control dedicated sub-arrays among the whole antenna arrangement, and to switch the rest of the sub-arrays off, applied in a predetermined use frequency, enabling reswitching of the sub-arrays on or off in a given time instant during wideband testing of a 4.5G or 5G base station.
A cell frame comprising a bipolar plate in contact with an electrode (104, 105) constituting a battery cell; and a frame body surrounding a periphery of the bipolar plate, wherein the frame body includes a liquid supply manifold through which an electrolyte is supplied into the battery cell, the bipolar plate includes, in a surface facing the electrode (104,105), a plurality of main groove portions that are arranged adjacent to one another and through which the electrolyte flows, at least one of the frame body and the bipolar plate includes a supply flow directing portion configured to distribute, in a direction in which the main groove portions are arranged adjacent to one another, the electrolyte supplied through the liquid supply manifold, to supply the electrolyte to each of the main groove portions, and each of widths Wi of electrolyte inlets of the main groove portions, and a width Wr of the supply flow directing portion in a direction orthogonal to the direction in which the main groove portions are arranged adjacent to one another, satisfy a width ratio Wr/Wi of 1.5 or more and 10 or less. wherein the frame body includes a liquid supply manifold through which an electrolyte is supplied into the battery cell, the bipolar plate includes, in a surface facing the electrode (104,105), a plurality of main groove portions that are arranged adjacent to one another and through which the electrolyte flows, at least one of the frame body and the bipolar plate includes a supply flow directing portion configured to distribute, in a direction in which the main groove portions are arranged adjacent to one another, the electrolyte supplied through the liquid supply manifold, to supply the electrolyte to each of the main groove portions, and each of widths Wi of electrolyte inlets of the main groove portions, and a width Wr of the supply flow directing portion in a direction orthogonal to the direction in which the main groove portions are arranged adjacent to one another, satisfy a width ratio Wr/Wi of 1.5 or more and 10 or less.
A method of establishing a sleep mode operation between a mobile station and a serving base station in a wireless communications system, the sleep mode comprises a plurality of sleep cycles, the method comprising: (a) determining a predefined traffic characteristic of a data transmission flow between the mobile station and the serving base station; and (b) applying one or multiple sets of sleep cycle parameters to each sleep cycle based on the determined traffic characteristic, wherein each sleep cycle comprises a sleep window and a listening window, and wherein each set of sleep cycle parameters comprises a sleep cycle length and a listening window length, wherein the sleep mode starts with an original initial sleep cycle length, and wherein each sleep cycle length grows exponentially up to a final sleep cycle length when no data traffic is indicated by a traffic indication message, wherein a new initial sleep cycle length is re-determined when the traffic indication message indicating positive data traffic, characterised in that the new initial sleep cycle length is equal to the original initial sleep cycle length plus a sleep offset. (a) determining a predefined traffic characteristic of a data transmission flow between the mobile station and the serving base station; and (b) applying one or multiple sets of sleep cycle parameters to each sleep cycle based on the determined traffic characteristic, wherein each sleep cycle comprises a sleep window and a listening window, and wherein each set of sleep cycle parameters comprises a sleep cycle length and a listening window length,
A once-through steam generator, comprising a heat exchanger, assembled by several heat exchanging subassemblies with the same structure; the heat exchanging subassembly includes a spiral heat transmission pipe bundle, a central cylinder and a sleeve; the spiral heat transmission pipes with different radii are concentrically and spirally arranged in an annular space between the central cylinder and the sleeve, to form one or more concentric heat exchanging pillar surfaces; a liquid header, one end of which is connected with a main water feeding pipe, and the other end of which is connected with the spiral heat transmission pipe bundle; a steam header, one end of which is connected with a main steam pipe, and the other end of which is connected with the spiral heat transmission pipe bundle; characterized in that each of the heat transmission pipes of each subassembly is directly connected to the same liquid header and the same steam header.
A multi-layer product for application to skin, having; a. a first layer having from 5%, preferably from 10%, preferably from 12% to 30%, preferably to 25%, more preferably to 20% by weight of the first layer, humectants; and b. a powder layer having from 15%, to 30%, preferably to 25%, by weight of the powder layer, of substantially spherical particles selected from the group consisting of coated starch, uncoated starch, coated starch derivatives, uncoated starch derivatives, coated crosslinked starch, uncoated crosslink starch, and combinations thereof, preferably the substantially spherical particles are selected from the group consisting of tapioca starch, corn starch, potato starch, glyceryl starch, aluminum starch octenylsuccinate, calcium starch octenylsuccinate, polymethylsilsesquioxane coated tapioca starch, cross linked starch, and combinations thereof, wherein the powder layer is an aqueous based composition that is an oil-in-water emulsion having a non-volatile oil present in a concentration level such that the weight ratio of non-volatile oil to particulate material is from 1:10 to 3:2, preferably from 1:4 to 1:1, and more preferably from 1:4 to 3:4; wherein the first layer is applied to the skin first, and the powder layer is applied on top of the first layer. a. a first layer having from 5%, preferably from 10%, preferably from 12% to 30%, preferably to 25%, more preferably to 20% by weight of the first layer, humectants; and b. a powder layer having from 15%, to 30%, preferably to 25%, by weight of the powder layer, of substantially spherical particles selected from the group consisting of coated starch, uncoated starch, coated starch derivatives, uncoated starch derivatives, coated crosslinked starch, uncoated crosslink starch, and combinations thereof, preferably the substantially spherical particles are selected from the group consisting of tapioca starch, corn starch, potato starch, glyceryl starch, aluminum starch octenylsuccinate, calcium starch octenylsuccinate, polymethylsilsesquioxane coated tapioca starch, cross linked starch, and combinations thereof, wherein the powder layer is an aqueous based composition that is an oil-in-water emulsion having a non-volatile oil present in a concentration level such that the weight ratio of non-volatile oil to particulate material is from 1:10 to 3:2, preferably from 1:4 to 1:1, and more preferably from 1:4 to 3:4;
A method for processing Iu interface parallel multimedia broadcast multicast service session start-up, characterized in comprising the following steps: detecting after a Multimedia Broadcast Multicast Service (MBMS) session start-up message initiated by SGSN has been received by RNC, whether other sessions of the same MBMS service have been established on the RNC; and the RNC, when detecting that the other sessions of the same MBMS service have been established on the RNC, detecting whether the MBMS service area carried in the MBMS session start message interlaps or overlaps with that of the other MBMS sessions established between the RNC and the SGSN, or interlaps with that of the MBMS session established between the RNC and other SGSNs, and performing the MBMS session start process according to the detected result. detecting after a Multimedia Broadcast Multicast Service (MBMS) session start-up message initiated by SGSN has been received by RNC, whether other sessions of the same MBMS service have been established on the RNC; and the RNC, when detecting that the other sessions of the same MBMS service have been established on the RNC, detecting whether the MBMS service area carried in the MBMS session start message interlaps or overlaps with that of the other MBMS sessions established between the RNC and the SGSN, or interlaps with that of the MBMS session established between the RNC and other SGSNs, and performing the MBMS session start process according to the detected result.
A memory circuit comprising: a data cell (136,146) comprising a magnetic tunnel junction MTJ structure; a first transistor load of the data cell; a bit line (BL_data0, BL_data1) coupled to the first transistor load and coupled to the data cell, wherein during a read operation the bit line has a first voltage value when the MTJ structure has a first logic state and a second voltage value when the MTJ structure has a second logic state; a reference circuit; and a second transistor load (112,122) of the reference circuit, the second transistor load coupled to the first transistor load, the second transistor load having an associated reference voltage value; a characteristic of the first transistor load differing from a corresponding characteristic of the second transistor load such that a first read margin is closer to a second read margin than would be the case if the characteristics were the same, wherein the first read margin is the difference between the first voltage and the reference voltage and the second read margin is the difference between the second voltage and the reference voltage. a data cell (136,146) comprising a magnetic tunnel junction MTJ structure; a first transistor load of the data cell; a bit line (BL_data0, BL_data1) coupled to the first transistor load and coupled to the data cell, wherein during a read operation the bit line has a first voltage value when the MTJ structure has a first logic state and a second voltage value when the MTJ structure has a second logic state; a reference circuit; and a second transistor load (112,122) of the reference circuit, the second transistor load coupled to the first transistor load, the second transistor load having an associated reference voltage value; a characteristic of the first transistor load differing from a corresponding characteristic of the second transistor load such that a first read margin is closer to a second read margin than would be the case if the characteristics were the same, wherein the first read margin is the difference between the first voltage and the reference voltage and the second read margin is the difference between the second voltage and the reference voltage.
The use of a polysulfide phosphor for upconversion luminescence, wherein a general formula of composition of the polysulfide phosphor is: m A 2 S· n BS· k C 2-x S 3:D x; A is one or more than one of Li, Na, K, Rb and Cs, and B is one or more than one of Be, Mg, Ca, Sr, Ba, Zn and Cd; C is one or more than one of La, Gd, Lu, Y, Sc, Al, Ga and Bi; D is one or more than one of Ho, Er, Tm and Pr, optionally co-doped with Mo, W, Ce, Sm, Tb, Yb, Eu or Nd; x=0.0001-2; n=0-0.1, m = 0.8-1.2 and k =0.4-0.6; m=0-0.2, n =0.8-1.2, and k = 0.8-1.2; or m=0-0.2, n = 4.5-5.5, and k =1.8-2.2; wherein when D contains Er, x value is 0.05-2; the phosphor is excitable within an excitation wavelengths range of 1450-1600 nm and/or 780-860 nm; wherein when D contains Ho, x value is 0.02-2 and the phosphor is excitable within an excitation wavelengths range of 1100-1190 nm; wherein when D contains Tm, x value is 0.01-2; the phosphor is excitable within an excitation wavelengths range of 1180-1260 nm and/or 760-850 nm. n=0-0.1, m = 0.8-1.2 and k =0.4-0.6; m=0-0.2, n =0.8-1.2, and k = 0.8-1.2; or m=0-0.2, n = 4.5-5.5, and k =1.8-2.2; wherein when D contains Er, x value is 0.05-2; the phosphor is excitable within an excitation wavelengths range of 1450-1600 nm and/or 780-860 nm; wherein when D contains Ho, x value is 0.02-2 and the phosphor is excitable within an excitation wavelengths range of 1100-1190 nm; wherein when D contains Tm, x value is 0.01-2; the phosphor is excitable within an excitation wavelengths range of 1180-1260 nm and/or 760-850 nm.
Luminaire assembly comprising a one-piece optical element (110, 111, 112) with light conducting or light directing sections with a central section comprising a refractive structuring for coupling and decoupling light for providing a directional flux for illumination purposes as well as a lateral section with a decoupling area (L1B) for the emission of contrast-reducing fill light and with a light source arrangement, aligned with the optical element (110, 111, 112) and placed in the illumination direction ahead of the optical element, comprising a light source carrier with a multitude of point light sources, in particular of light emitting semiconductor devices such as LED's or laser diodes, wherein the lateral section furthermore comprises a light guide area (L1a) and the outer decoupling area (L1b) laterally thereto comprises optical decoupling elements (60, 61) placed on a surface for decoupling the contrast-reducing fill light laterally to the directional flux, wherein the light source arrangement has a primary light source structure and a secondary light source structure, characterized in that light sources of the primary light source structure and light sources of the secondary light source structure have a different emission spectrum and/or separately controllable power supplies.
Thrust chain with chain links (2, 3) connected to each other by joints (4, 4') and having stop surfaces (5, 6, 6'), whereby a straight alignment of the chain links (2, 3) takes place in the case of contact, but the chain links (2, 3) are pivotable in the other direction with respect to each other, and wherein the chain links (2, 3) have engaging elements for a pinion drive, characterized in that U-shaped outer chain links and U-shaped inner chain links are arranged in an intermeshing manner, wherein the inner chain links bear with their outer sides against the inner sides of the outer chain links, and wherein the chain links (2, 3) have a complete U-shape (11, 11') for half of their longitudinal extent, and for the other half of the longitudinal extent the limbs (9, 10) of the U have plates (12, 13) projecting in the longitudinal direction, in that joints (4, 4') are mounted both in the limbs (9, 10) and in the plates (12, 13) in such a way that each joint (4, 4') movably connects an outer chain link to an inner chain link, and in that the dimensions of the chain links (2, 3) support them, in the stretched state of the thrust chain with the stop surfaces on the bases of the U, and simultaneously support all outer chain links and all inner chain links with their respective stop surfaces on the limbs (9, 10) of the U on the stop surfaces of the plates (12, 13) of the subsequent chain link (2, 3).
A transmission method, comprising: modulating QPSK signals s1(i) by using bits of a first stream and 16-QAM signals s2(i) by using bits of a second stream, where i is an integer greater than or equal to 0; converting the QPSK signals s1(i) and the 16-QAM signals s2(i) to first converted signals z1(i) and second converted signals z2(i), the first converted signals z1(i) and the second converted signals z2(i) satisfing Equation, z 1 i z 2 i = 1 0 0 y i 1 α 2 + 1 e j 0 α × e j 0 α × e j 0 e jπ u 0 0 ν s 1 i s 2 i where α = 1, y(i) changes in N period, where N is an integer that is greater than or equal to 3, and a weighting factor u and a weighting factor v are real values satisfying u < v; and transmitting the first converted signals z1(i) and the second converted signals z2(i) using a plurality of antennas. modulating QPSK signals s1(i) by using bits of a first stream and 16-QAM signals s2(i) by using bits of a second stream, where i is an integer greater than or equal to 0; converting the QPSK signals s1(i) and the 16-QAM signals s2(i) to first converted signals z1(i) and second converted signals z2(i), the first converted signals z1(i) and the second converted signals z2(i) satisfing Equation, z 1 i z 2 i = 1 0 0 y i 1 α 2 + 1 e j 0 α × e j 0 α × e j 0 e jπ u 0 0 ν s 1 i s 2 i where α = 1, y(i) changes in N period, where N is an integer that is greater than or equal to 3, and a weighting factor u and a weighting factor v are real values satisfying u < v; and transmitting the first converted signals z1(i) and the second converted signals z2(i) using a plurality of antennas.
Method for processing a spent nuclear fuel, which comprises a decontamination of uranium from one or more actinides, which decontamination comprises at least one operation for stripping the actinide or the actinides from an organic phase, not miscible with water and wherein uranium and the actinide or the actinides are present, by putting the organic phase in contact with an aqueous phase comprising nitric acid and at least one complexing agent which more strongly complexes actinides than uranium, and then separating the organic phase from the aqueous phase, and which is characterized in that said at least one complexing agent is a diglycolamide.
A pressure steam treatment apparatus, comprising: a pressure steam treatment chamber configured to treat, by pressurized steam, a fiber bundle traveling in a fixed direction; two labyrinth sealing chambers extending from front and rear sides of the pressure steam treatment chamber; labyrinth nozzles provided in the labyrinth sealing chambers and arranged in multiple stages in parallel along one of a plurality of fiber bundle travel paths, the labyrinth nozzles being configured from plate pieces extending perpendicularly towards the fiber bundles from upper and lower inner wall surfaces of the labyrinth chamber; expansion chambers formed between the front and rear labyrinth nozzles; and means for treating a plurality of the fiber bundles traveling in parallel under a pressure steam atmosphere in a lump, characterized in that the labyrinth sealing chambers are continuously provided in an inlet and an outlet of the fiber bundle of the pressure steam treatment chamber respectively, and partition plates are provided in parallel to the fiber bundle and along between adjacent fiber bundles in the fiber bundle parallel direction in the labyrinth sealing chamber such that, in use of the apparatus, the fiber bundle travel paths in the labyrinth sealing chambers are comparted per each of the fiber bundles by the partition plate. a pressure steam treatment chamber configured to treat, by pressurized steam, a fiber bundle traveling in a fixed direction; two labyrinth sealing chambers extending from front and rear sides of the pressure steam treatment chamber; labyrinth nozzles provided in the labyrinth sealing chambers and arranged in multiple stages in parallel along one of a plurality of fiber bundle travel paths, the labyrinth nozzles being configured from plate pieces extending perpendicularly towards the fiber bundles from upper and lower inner wall surfaces of the labyrinth chamber; expansion chambers formed between the front and rear labyrinth nozzles; and means for treating a plurality of the fiber bundles traveling in parallel under a pressure steam atmosphere in a lump,
Apparatus for recovering braking energy during the braking of an inert mass which is in motion, in order to convert the braking energy at least partially into mechanical energy and to store it, having a flywheel which is operatively connected via a gear mechanism to the inert mass, characterized in that the gear mechanism has two planetary gear mechanisms (14, 15) which have sun gears (17, 18) which are connected fixedly to one another so as to rotate together and internal gears which are connected fixedly to one another so as to rotate together and a circumference of the respective planetary gears (21, 23) which differs from one another, and in that the apparatus has a converter device which is arranged between the inert mass and the gear mechanism for the conversion of braking energy into a torque sequence, the converter device having a non-rotationally symmetrical rotary body which can be brought into an operative connection with a torque changing body which can be deflected perpendicularly with respect to a rotational axis of the rotary body, and the converter device being operatively connected to the gear mechanism and being capable of changing its rotational energy, in order to transmit the change in the rotational energy of the gear mechanism at least partially to the flywheel and to bring about a change in the rotational energy which is stored in the flywheel.