mhurhangee/ep-ind-claims huggingface dataset:
A melt extrusion process having feeding, melting, mixing, homogenising and cooling stages and comprising the steps of: extruding a molten material that is flowable when heated, wherein the molten material that is flowable contains a pharmaceutical together with one or more non-therapeutic compounds; and passing the molten extrudate thus formed through a nozzle to shape the molten extrudate material into a plurality of substantially uniformly shaped minicapsules, the nozzle having a single outlet, characterised in that aqueous-soluble gelling agent from a molten reservoir is heated and pumped into the molten extrudate material at the cooling stage prior to discharge of the molten extrudate material into the nozzle such that the gelling and non-gelling components of the resultant mix are mixed through one another; in that a vibrational force is applied to the nozzle as the molten extrudate material is passed through the nozzle; and in that the process further comprises cooling the minicapsules in a cooling gas or a cooling liquid, optionally wherein the process further comprises preparing a formulation designed for oral delivery by means of inclusion of multiple minicapsules in a hard gelatin capsule or in a sachet.
A method of initiating a web service charging request in a communication network, the method comprising the steps of: A. retrieving network context information of a web service from a data repository corresponding to the web service in response to a first charging request from the web service; B. generating a second charging request from the network context information; and C. transmitting the second charging request to a charging system, A1. Retrieving a charging policy from a policy server, the charging policy indicating a service combination of the web service, and A2. Retrieving network context information of respective sub-services in the service combination from data repositories corresponding to the respective sub-services. A. retrieving network context information of a web service from a data repository corresponding to the web service in response to a first charging request from the web service; B. generating a second charging request from the network context information; and C. transmitting the second charging request to a charging system, A1. Retrieving a charging policy from a policy server, the charging policy indicating a service combination of the web service, and A2. Retrieving network context information of respective sub-services in the service combination from data repositories corresponding to the respective sub-services. A1. Retrieving a charging policy from a policy server, the charging policy indicating a service combination of the web service, and A2. Retrieving network context information of respective sub-services in the service combination from data repositories corresponding to the respective sub-services.
An apparatus for receiving a signal in a slot of a sub-frame in the uplink of a single-carrier frequency division multiple access, SC-FDMA, wireless communication system, the signal including data information, and acknowledgement information, the apparatus comprising: a receiver for receiving a reference signal that is mapped to a middle symbol in the slot; and a de-mapper for de-mapping the acknowledgement information that is mapped only in symbols directly adjacent to the middle symbol among remaining symbols in the slot, the reference signal being not mapped to the symbols directly adjacent to the middle symbol, and for de-mapping the data information that is mapped to the remaining symbols, wherein some of the data information is mapped to the symbols directly adjacent to the middle symbol. a receiver for receiving a reference signal that is mapped to a middle symbol in the slot; and a de-mapper for de-mapping the acknowledgement information that is mapped only in symbols directly adjacent to the middle symbol among remaining symbols in the slot, the reference signal being not mapped to the symbols directly adjacent to the middle symbol, and for de-mapping the data information that is mapped to the remaining symbols, wherein some of the data information is mapped to the symbols directly adjacent to the middle symbol.
A server which is utilized in a communication game system in which a plurality of game apparatus communicate across a network, and each game apparatus includes a first storing means for storing identifying information which identifies the game apparatus and a second storing means for registering opponent identifying information being the identifying information of other game apparatus of said plurality of game apparatus, said server comprising: third storing means for storing at least identifying information and address of a game apparatus connected on-line to said network; and fourth storing means for storing opponent identifying information registered with each game apparatus stored in the third storing means, said server being characterized by further comprising: detecting means for determining whether or not inquired opponent identifying information received from a connecting game apparatus is stored in said third storing means as a connected game apparatus, and for determining whether or not identifying information of the connecting game apparatus is stored in said fourth storing means as opponent identifying information for the connected game apparatus; and a responding means for transmitting, when it is determined by said detecting means that the inquired opponent identifying information received from the connecting game apparatus is stored in said third storing means as a connected game apparatus and the identifying information of the connecting game apparatus is stored in said fourth storing means as opponent identifying information for the connected game apparatus, the address of the connected game apparatus to said connecting game apparatus. third storing means for storing at least identifying information and address of a game apparatus connected on-line to said network; and fourth storing means for storing opponent identifying information registered with each game apparatus stored in the third storing means, detecting means for determining whether or not inquired opponent identifying information received from a connecting game apparatus is stored in said third storing means as a connected game apparatus, and for determining whether or not identifying information of the connecting game apparatus is stored in said fourth storing means as opponent identifying information for the connected game apparatus; and a responding means for transmitting, when it is determined by said detecting means that the inquired opponent identifying information received from the connecting game apparatus is stored in said third storing means as a connected game apparatus and the identifying information of the connecting game apparatus is stored in said fourth storing means as opponent identifying information for the connected game apparatus, the address of the connected game apparatus to said connecting game apparatus.
A multi-antenna array for a LTE MIMO communication system, comprising a reflection plate, antenna radiation units located on the front of the reflection plate, and a power feed network disposed on the back of the reflection plate; wherein the power feed network comprises a plurality of power distribution plates arranged on the back of the reflection plate, the plurality of power distribution plates configured to control power distribution for antenna radiation units having different polarization manners respectively; wherein the plurality of power distribution plates are disposed in upper and lower layers, and the geometrical centers of the plurality of power distribution plates are in the geometrical center of a projection area of the reflection plate on a plane parallel to the reflection plate; wherein the multi-antenna array further comprises more than one set of plates for supporting respective power distribution plates, the more than one set of plates for supporting power distribution plates having different heights and being fixed to the reflection plate by fasteners respectively; wherein each power distribution plate is fixed to one set of plates for supporting power distribution plates by fasteners; wherein each power distribution plate has first ports arranged on a first side and second ports arranged on a second side, the second side is opposite to the first side, the ports of each power distribution plate are on a respective plane parallel to the reflection plate; wherein the first and second ports are connected to respective feed cables of the antenna radiation units, the feed cables being respectively arranged on the first and second sides of the power distribution plate.
A transmission quality estimation device in a transmission quality estimation system which includes three or more nodes (520, 522, 524, 526) and the transmission quality estimation device (700, 720, 740, 760) configured to estimate transmission quality and in which a multi-core fiber (600, 660) is used in at least a partial segment of a connection between the nodes, the transmission quality estimation device comprising: a receiving unit configured to receive transmission quality measurement light dropped from some of the plurality of cores of the multi-core fiber, the multi-core fiber including a core configured to transmit the transmission quality measurement light; and an estimation unit (705, 725, 745, 765) configured to estimate transmission quality between the nodes on the basis of the transmission quality measurement light; the transmission quality estimation device being characterized in that the multi-core fiber includes a plurality of first cores configured to transmit respectively communication optical signals modulated by low frequency intensity components or having different wavelengths such that each of the plurality of first cores can be identified, and a second core configured to transmit the transmission quality measurement light including light leaking from at least one of the plurality of first cores, and the estimation unit (705, 725, 745, 765) configured to identify a first core from which light leaks among the plurality of first cores based on light intensity of a low frequency component or light intensity of a wavelength included in the transmission quality measurement light. a receiving unit configured to receive transmission quality measurement light dropped from some of the plurality of cores of the multi-core fiber, the multi-core fiber including a core configured to transmit the transmission quality measurement light; and an estimation unit (705, 725, 745, 765) configured to estimate transmission quality between the nodes on the basis of the transmission quality measurement light; the transmission quality estimation device being characterized in that the multi-core fiber includes a plurality of first cores configured to transmit respectively communication optical signals modulated by low frequency intensity components or having different wavelengths such that each of the plurality of first cores can be identified, and a second core configured to transmit the transmission quality measurement light including light leaking from at least one of the plurality of first cores, and the estimation unit (705, 725, 745, 765) configured to identify a first core from which light leaks among the plurality of first cores based on light intensity of a low frequency component or light intensity of a wavelength included in the transmission quality measurement light.
Shoe, in particular sports shoe, comprising a sole unit, wherein the sole unit comprises a recess (20, 120) for releasably receiving a housing of an electronic assembly, in particular an electronic pedometer, wherein a. the recess (20, 120) is arranged in the midsole of a sole unit which is covered by a preferably removable insole, when the shoe is in use, b. the recess (20, 120) is arranged in the midfoot region of the sole unit, c. the recess comprises at least one projection engaging a corresponding indentation or opening of the housing, d. the recess is integrated into a reinforcing element of the shoe sole. a. the recess (20, 120) is arranged in the midsole of a sole unit which is covered by a preferably removable insole, when the shoe is in use, b. the recess (20, 120) is arranged in the midfoot region of the sole unit, c. the recess comprises at least one projection engaging a corresponding indentation or opening of the housing, d. the recess is integrated into a reinforcing element of the shoe sole.
A pharmaceutical composition for use in the treatment of cancer in a subject comprising a Cdc7 inhibitor and an M-phase promoter, wherein the Cdc7 inhibitor is a furanone derivative selected from the compounds (I-D) and (I-E): and the M-phase promotor is the Wee1 inhibitor MK-1775:
Process for the thermal welding of at least two XPS starting panels (2, 3) to form a new panel (1, 25), in particular from halogen-free expanded starting panels (2, 3) to new panels (1, 25) with a minimum thickness of 70 mm, preferably with a minimum thickness of 100 mm, wherein the XPS starting panels (2, 3) are heated at their contact surfaces and after the heat treatment are pressed against one another, characterised in that a) XPS starting panels (2, 3) are used that do not have an extrusion skin on the contact surface, and b) wherein the contact surfaces are subjected to a temperature above the melting point/softening temperature of the polymer of at least 100 °C, preferably at least 200 °C, even more preferably at least 300 °C and most preferably at least 400 °C, c) wherein the contact surfaces are heated with a strip-shaped heat source and the XPS starting panels (2, 3) are moved above the heat source (12, 15, 20) and/or below the heat source (12, 15, 20), d) wherein the dwell time of the heat source (12, 15, 20) on the contact surface of an XPS starting panel (2, 3) is at most 4 seconds, preferably at most 3 seconds and even more preferably at most 2 seconds and most preferably at most 1 second. a) XPS starting panels (2, 3) are used that do not have an extrusion skin on the contact surface, and b) wherein the contact surfaces are subjected to a temperature above the melting point/softening temperature of the polymer of at least 100 °C, preferably at least 200 °C, even more preferably at least 300 °C and most preferably at least 400 °C, c) wherein the contact surfaces are heated with a strip-shaped heat source and the XPS starting panels (2, 3) are moved above the heat source (12, 15, 20) and/or below the heat source (12, 15, 20), d) wherein the dwell time of the heat source (12, 15, 20) on the contact surface of an XPS starting panel (2, 3) is at most 4 seconds, preferably at most 3 seconds and even more preferably at most 2 seconds and most preferably at most 1 second.
An electric power-assisted bicycle comprising: a drive wheel including a hub and an axle, a transmission mechanism; a speed reduction mechanism; a driving motor; and a transmission control mechanism, the transmission mechanism, the speed reduction mechanism, and the driving motor being placed in juxtaposition with each other in an axial direction of the axle in the hub of the drive wheel, wherein the transmission mechanism has a function of transmitting driving force due to leg-power from pedals to the drive wheel through a sprocket, the speed reduction mechanism has a function of transmitting driving force from the driving motor to the drive wheel, the transmission mechanism is constituted by a planetary gear mechanism comprising at least one sun gear, planetary gears for transmission meshed with the sun gear for transmission, and a planetary carrier for transmission supporting the planetary gears for transmission, the transmission control mechanism performs gear shifting such that the sun gear for transmission is switched over in a rotatable and non-rotatable manner around the axle with respect to the driving force from the sprocket, and characterised in that the speed reduction mechanism is constituted by the planetary gear mechanism comprising at least one sun gear for speed reducer, and planetary gears for speed reducer meshed with the sun gear for speed reducer, and the planetary gears for speed reducer is supported by the planetary carrier for transmission or a member that is rotated integrally with the planetary carrier for transmission. a drive wheel including a hub and an axle, a transmission mechanism; a speed reduction mechanism; a driving motor; and a transmission control mechanism,
A method of determining a genomic estimated breeding value (GEBV) or a genomic predicted transmitting ability (GPTA) of a non-human mammalian fetus or embryo comprising: extracting DNA from the one or more fetal or embryonic cells which have been derived from an in vivo embryo or fetus which remains viable, by amniocentesis; genotyping the DNA to obtain a genotype for the fetus or embryo; and determining a GEBV or a GPTA of the fetus or embryo based on the genotype. extracting DNA from the one or more fetal or embryonic cells which have been derived from an in vivo embryo or fetus which remains viable, by amniocentesis; genotyping the DNA to obtain a genotype for the fetus or embryo; and determining a GEBV or a GPTA of the fetus or embryo based on the genotype.
A graphics processing unit (200; 614; 900; 1506) comprising: a set of memory controllers (912A-B; 1714); a cache memory (908; 1604); and at least one compute cluster (214; 906A-H) comprising at least one graphics multiprocessor (234; 325; 407; 1608) coupled to the set of memory controllers (912A, 912B; 1714), the at least one graphics multiprocessor (234; 325; 407; 1608) including an instruction unit (254; 332A-B), a plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), and a shared memory coupled to the plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), wherein the instruction unit (254; 332A-B) is configured to dispatch instructions for execution by at least one of the plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), wherein a compute mechanism supports a mixed precision fused multiply-accumulate, FMAC, instruction of D = A ∗ B + C with operands having different precisions; characterized in that the graphics processing unit (200; 614; 900; 1506) comprises a low power inference configuration of the at least one compute cluster (214; 906A-H) to perform inferencing computations on a trained neural network; and the FMAC instruction is supported by the inference configuration, wherein A and B are 8-bit integer data elements, and C is a 32-bit integer data element. a set of memory controllers (912A-B; 1714); a cache memory (908; 1604); and at least one compute cluster (214; 906A-H) comprising at least one graphics multiprocessor (234; 325; 407; 1608) coupled to the set of memory controllers (912A, 912B; 1714), the at least one graphics multiprocessor (234; 325; 407; 1608) including an instruction unit (254; 332A-B), a plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), and a shared memory coupled to the plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), wherein the instruction unit (254; 332A-B) is configured to dispatch instructions for execution by at least one of the plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), wherein a compute mechanism supports a mixed precision fused multiply-accumulate, FMAC, instruction of D = A ∗ B + C with operands having different precisions; characterized in that the graphics processing unit (200; 614; 900; 1506) comprises a low power inference configuration of the at least one compute cluster (214; 906A-H) to perform inferencing computations on a trained neural network; and the FMAC instruction is supported by the inference configuration, wherein A and B are 8-bit integer data elements, and C is a 32-bit integer data element.
A coated cutting tool comprising a substrate and a coating, wherein the coating comprises a PVD layer being a compound of the formula of the formula Ti 1-x Si x C a N b O c, 0.10<x≤0.30, 0≤a≤0.75, 0.25≤b≤1, 0≤c≤0.2, a+b+c=1, wherein the PVD layer is a NaCl structure solid solution, the PVD layer has a FWHM value for the cubic peak in X-ray diffraction being ≤ 0.35 degrees (2theta).
A member (6A, 6B) for guiding a strand of filter fibers in an area of placing objects into the strand of filter fibers in a tobacco industry machine, adapted to work together with an apparatus for feeding the objects to the strand of filter fibers, having a slot in which a feeding member or members of an object feeder move(s), an inlet opening for a strand of filter fibers, an outlet opening for a strand of filter fibers, a guiding channel connecting the inlet opening and the outlet opening characterized by comprising vent holes for stabilizing a converted strand of filter fibers and increasing the accuracy of object placing.
A method for measuring volatile organic compounds evolved from coated glass containers, the method comprising: loading at least 200 coated glass containers into an oven; heating the oven to a heat treatment temperature; purging the oven with dry clean air; collecting at least a volumetric portion of an oven exhaust; trapping volatile organic compounds from the volumetric portion of the oven exhaust in a trap; and measuring the volatile organic compounds trapped in the trap, wherein glass containers are intact; wherein a split ratio of a total oven exhaust to the volumetric portion of the oven exhaust that is collected is from greater than or equal to 20:1 to less than or equal to 60: 1; and wherein the method further comprises normalizing the volatile organic compounds to the split ratio and normalizing the volatile organic compounds to a single container by dividing the normalized volatile organic compounds by the number of containers tested. loading at least 200 coated glass containers into an oven; heating the oven to a heat treatment temperature; purging the oven with dry clean air; collecting at least a volumetric portion of an oven exhaust; trapping volatile organic compounds from the volumetric portion of the oven exhaust in a trap; and measuring the volatile organic compounds trapped in the trap, wherein glass containers are intact; wherein a split ratio of a total oven exhaust to the volumetric portion of the oven exhaust that is collected is from greater than or equal to 20:1 to less than or equal to 60: 1; and wherein the method further comprises normalizing the volatile organic compounds to the split ratio and normalizing the volatile organic compounds to a single container by dividing the normalized volatile organic compounds by the number of containers tested.