mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine control method for a gas turbine that includes a combustor provided with a pilot nozzle and a plurality of main nozzles arranged on a circumference of the pilot nozzle for supplying fuel gas to the combustor, wherein said main nozzles are grouped into a plurality of nozzle groups (A,B) including a first nozzle group and a second nozzle group having different numbers of main nozzles and wherein the first and second nozzle groups (A, B) used for fuel supply to the combustor are switched during a switching period according to an operating condition of the gas turbine, wherein, during said switching period, the first nozzle group that has been used is switched to the second nozzle group that is going to be used, the method characterized in that it comprises the steps of: registering in advance at least one adjustment parameter for adjusting a first fuel-supply sharing ratio used for the fuel flow-rate control of the first nozzle group during the nozzle switching period and a second fuel-supply sharing ratio used for the fuel flow-rate control of the second nozzle group during the nozzle switching period; adjusting the amounts of fuel supplied through the first nozzle group and the second nozzle group during the switching period by using the at least one adjustment parameter registered in advance to adjust the first, respectively the second fuel-supply sharing ratio (MAR,MBR) and by applying the first, respectively the second adjusted fuel-supply sharing ratio (MAR', MBR') to a fuel supply command value to set a first, respectively a second fuel supply command value (MACSO,MBCSO) that determines the fuel supply amount for the first, respectively the second nozzle group (A,B) during the switching period; updating the adjustment parameter registered in advance, according to the operating condition of the gas turbine; and registering the updated adjustment parameter as an adjustment parameter to be used for the next nozzle switching. registering in advance at least one adjustment parameter for adjusting a first fuel-supply sharing ratio used for the fuel flow-rate control of the first nozzle group during the nozzle switching period and a second fuel-supply sharing ratio used for the fuel flow-rate control of the second nozzle group during the nozzle switching period; adjusting the amounts of fuel supplied through the first nozzle group and the second nozzle group during the switching period by using the at least one adjustment parameter registered in advance to adjust the first, respectively the second fuel-supply sharing ratio (MAR,MBR) and by applying the first, respectively the second adjusted fuel-supply sharing ratio (MAR', MBR') to a fuel supply command value to set a first, respectively a second fuel supply command value (MACSO,MBCSO) that determines the fuel supply amount for the first, respectively the second nozzle group (A,B) during the switching period; updating the adjustment parameter registered in advance, according to the operating condition of the gas turbine; and registering the updated adjustment parameter as an adjustment parameter to be used for the next nozzle switching.
A method for wireless communication, comprising: transmitting, at a first node of a wireless communications system, a first random access message to a second node to initiate a random access procedure, based at least in part on the second node being associated with a timing synchronization resource, wherein the second node is a neighbor of the first node and is different from a parent node of the first node; receiving a second random access message from the second node, the second random access message comprising timing information based at least in part on the timing synchronization resource; and terminating the random access procedure prior to establishing a connection with the second node via the random access procedure based at least in part on receiving the second random access message, wherein the first node, the second node, and the parent node of the first node are integrated and access backhaul, IAB, nodes respectively. transmitting, at a first node of a wireless communications system, a first random access message to a second node to initiate a random access procedure, based at least in part on the second node being associated with a timing synchronization resource, wherein the second node is a neighbor of the first node and is different from a parent node of the first node; receiving a second random access message from the second node, the second random access message comprising timing information based at least in part on the timing synchronization resource; and terminating the random access procedure prior to establishing a connection with the second node via the random access procedure based at least in part on receiving the second random access message, wherein the first node, the second node, and the parent node of the first node are integrated and access backhaul, IAB, nodes respectively.
Device for assembling a transformer, comprising a lifting platform and a receiving portion, wherein the receiving portion is arranged within the lifting platform, wherein a transformer core of the transformer can be arranged in the receiving portion, characterized in that the lifting platform is set up for joint raising and lowering of windings relative to the transformer core, and the lifting platform has adjusting elements by means of which the windings in the raised state are movable laterally relative to one another.
A shielding assembly comprising: a board level shield including at least one opening and a heat sink including at least one protrusion, wherein the at least one opening and the one protrusion are complementary in shape such that the at least one protrusion at least partially protrudes through the at least one opening when the board level shield mates with the heat sink to at least partially cover the heat sink, wherein the board level shield comprises a fence and a lid attachable to the fence, the lid comprises a top and a lid sidewall depending from and/or generally perpendicular to the top of the lid, the lid sidewall surrounds the fence when the lid is attached to the fence; characterized in that: the lid sidewall further comprises a plurality of tabs that bend inward towards a concave portion of the lid and generally perpendicular to the lid sidewall; the fence comprises a fence sidewall and a rail; the rail meets the fence sidewall at a bend and proceeds from the fence sidewall towards the heat sink; and wherein, when the lid is attached to the fence and the board level shield is affixed to a printed circuit board including at least one heat source, the tabs rest on the rail whereby the tabs act as compression stops for the lid thereby regulating a depth of compression of the lid onto the fence and a depth of compression of the heat sink onto the at least one heat source, for preventing over-compression of one or more thermal interface materials between the heat sink and the heat source. a board level shield including at least one opening and a heat sink including at least one protrusion, wherein the at least one opening and the one protrusion are complementary in shape such that the at least one protrusion at least partially protrudes through the at least one opening when the board level shield mates with the heat sink to at least partially cover the heat sink, wherein the board level shield comprises a fence and a lid attachable to the fence, the lid comprises a top and a lid sidewall depending from and/or generally perpendicular to the top of the lid, the lid sidewall surrounds the fence when the lid is attached to the fence; the lid sidewall further comprises a plurality of tabs that bend inward towards a concave portion of the lid and generally perpendicular to the lid sidewall; the fence comprises a fence sidewall and a rail; the rail meets the fence sidewall at a bend and proceeds from the fence sidewall towards the heat sink; and wherein, when the lid is attached to the fence and the board level shield is affixed to a printed circuit board including at least one heat source, the tabs rest on the rail whereby the tabs act as compression stops for the lid thereby regulating a depth of compression of the lid onto the fence and a depth of compression of the heat sink onto the at least one heat source, for preventing over-compression of one or more thermal interface materials between the heat sink and the heat source.
A computer-implemented method for determining a treatment plan for delivering radiotherapy to a patient via a radiation machine, the method comprising: providing a beam model for use in the radiation machine; determining, for the radiation machine, a gantry angle-indexed dose, GAID, variation representing a plurality of radiation doses at different gantry angles; and determining a radiation treatment plan for the patient using the beam model and the determined GAID variation, wherein determining the GAID variation includes: delivering a constant radiation beam to a phantom at different gantry angles; and calculating a dose at each of one or more locations in the phantom corresponding to each of the different gantry angles. providing a beam model for use in the radiation machine; determining, for the radiation machine, a gantry angle-indexed dose, GAID, variation representing a plurality of radiation doses at different gantry angles; and determining a radiation treatment plan for the patient using the beam model and the determined GAID variation, wherein determining the GAID variation includes: delivering a constant radiation beam to a phantom at different gantry angles; and calculating a dose at each of one or more locations in the phantom corresponding to each of the different gantry angles. delivering a constant radiation beam to a phantom at different gantry angles; and calculating a dose at each of one or more locations in the phantom corresponding to each of the different gantry angles.
A computing system comprising: a management processor (110, 300) configured to initiate a communication arrangement between a first peripheral component interconnect express (PCIe) device and a second PCIe device over a PCIe fabric (151, 51) comprising one or more PCIe switches (150, 950); and a host processor (120, 200) configured to determine a virtual address range corresponding to a physical address range of the second PCIe device, the virtual address range established for transfers between the first PCIe device and the second PCIe device, wherein the virtual address range of the second PCIe device is in addition to a memory mapped address range assigned to the second PCIe device within a memory space of the host processor during enumeration of the second PCIe device by the host processor; wherein the communication arrangement is configured to detect transfers from the first PCIe device to the one or more virtual addresses corresponding to the virtual address range of the second PCIe device, and redirect the transfers to the physical address range of the second PCIe device without passing the transfers through the host processor (120, 200) that initiates the transfers, wherein at least one transfer is initiated by a request originated by an application executed by the host processor to transfer data from the first PCIe device to the second PCIe device via a command that employs the communication arrangement. a management processor (110, 300) configured to initiate a communication arrangement between a first peripheral component interconnect express (PCIe) device and a second PCIe device over a PCIe fabric (151, 51) comprising one or more PCIe switches (150, 950); and a host processor (120, 200) configured to determine a virtual address range corresponding to a physical address range of the second PCIe device, the virtual address range established for transfers between the first PCIe device and the second PCIe device, wherein the virtual address range of the second PCIe device is in addition to a memory mapped address range assigned to the second PCIe device within a memory space of the host processor during enumeration of the second PCIe device by the host processor; wherein the communication arrangement is configured to detect transfers from the first PCIe device to the one or more virtual addresses corresponding to the virtual address range of the second PCIe device, and redirect the transfers to the physical address range of the second PCIe device without passing the transfers through the host processor (120, 200) that initiates the transfers, wherein at least one transfer is initiated by a request originated by an application executed by the host processor to transfer data from the first PCIe device to the second PCIe device via a command that employs the communication arrangement.
A method for determining if a reliable state of health for a battery comprising a plurality of battery cells can be calculated, the method comprising the steps of: - calculating a state of charge value for said battery by means of a received measured voltage value and/or a received measured electric current value; - comparing the received measured voltage value and/or the received measured electric current value with at least one predetermined parameter criterion for measured voltage and/or measured electrical current; - determining that the calculated state of charge value is accurate if the received measured voltage value and/or the received measured electric current value fulfils the at least one predetermined parameter criterion; - receiving a measured temperature value of the battery; - determining that the measured temperature value is accurate if a difference between the largest temperature of a battery cell and the lowest temperature of a battery cell is within a predetermined range; - determining that the measured voltage value is accurate if measured when the absolute value of the derivative function dy/dx is above a predetermined threshold limit, where: y = a measured voltage of the battery; and x = a calculated state of charge of the battery; - determining that the parameters for calculating state of health are accurate if the calculated state of charge, the measured temperature and the measured voltage value are determined accurate; and - determining that a reliable state of health can be calculated if the parameters for calculating state of health are determined accurate. - calculating a state of charge value for said battery by means of a received measured voltage value and/or a received measured electric current value; - comparing the received measured voltage value and/or the received measured electric current value with at least one predetermined parameter criterion for measured voltage and/or measured electrical current; - determining that the calculated state of charge value is accurate if the received measured voltage value and/or the received measured electric current value fulfils the at least one predetermined parameter criterion; - receiving a measured temperature value of the battery; - determining that the measured temperature value is accurate if a difference between the largest temperature of a battery cell and the lowest temperature of a battery cell is within a predetermined range; - determining that the measured voltage value is accurate if measured when the absolute value of the derivative function dy/dx is above a predetermined threshold limit, where: y = a measured voltage of the battery; and x = a calculated state of charge of the battery; y = a measured voltage of the battery; and x = a calculated state of charge of the battery; - determining that the parameters for calculating state of health are accurate if the calculated state of charge, the measured temperature and the measured voltage value are determined accurate; and - determining that a reliable state of health can be calculated if the parameters for calculating state of health are determined accurate.
Tyre comprising a rubber composition based on at least one olefinic elastomer comprising epoxide functional groups as predominant elastomer, at least one reinforcing filler and a crosslinking system comprising a polycarboxylic acid of general formula: in which A represents a covalent bond or a hydrocarbon group which comprises at least 1 carbon atom, which is optionally substituted and which is optionally interrupted by one or more heteroatoms, and an imidazole of general formula: in which: - R 1 represents a hydrocarbon group or a hydrogen atom, - R 2 represents a hydrocarbon group, - R 3 and R 4 represent, independently of one another, a hydrogen atom or a hydrocarbon group, - or else R 3 and R 4 form, together with the carbon atoms of the imidazole ring to which they are attached, a ring. - R 1 represents a hydrocarbon group or a hydrogen atom, - R 2 represents a hydrocarbon group, - R 3 and R 4 represent, independently of one another, a hydrogen atom or a hydrocarbon group, - or else R 3 and R 4 form, together with the carbon atoms of the imidazole ring to which they are attached, a ring.
A cell culture medium kit of parts comprising a dry powder cell culture medium component and a liquid cell culture medium component which comprises a deep eutectic solvent comprised of choline and/or betaine and/or 2-methyl-choline, ethers and esters of choline such as acetylcholine, lactylcholine, propinoylcholine, buturylcholine, or the methyl-, ethyl-, vinyl- or butyl-ether of choline, esters of betaine or salts thereof and one or more amino acids.
A method for preparing a thin monodomain layer of ferroelectric material comprising the following steps: - implanting light species in a first face of a ferroelectric donor substrate to form an embrittlement plane and define a first layer between the embrittlement plane and the first face of the donor substrate; - assembling the first face of the donor substrate to a support substrate by means of a dielectric assembly layer; - fracturing the donor substrate at the embrittlement plane in order to transfer the first layer onto the support substrate and expose a free face of the first layer; - finishing the first layer, this finishing comprising heat treatment of the free face of the first layer, followed by thinning of the first layer to form the thin monodomain layer; the dielectric assembly layer comprising an oxide preventing the diffusion of hydrogen toward the first layer, or the dielectric assembly layer comprising a barrier preventing the diffusion of hydrogen toward the first layer. - implanting light species in a first face of a ferroelectric donor substrate to form an embrittlement plane and define a first layer between the embrittlement plane and the first face of the donor substrate; - assembling the first face of the donor substrate to a support substrate by means of a dielectric assembly layer; - fracturing the donor substrate at the embrittlement plane in order to transfer the first layer onto the support substrate and expose a free face of the first layer; - finishing the first layer, this finishing comprising heat treatment of the free face of the first layer, followed by thinning of the first layer to form the thin monodomain layer;
Method for producing bags, wherein the bags have a pocket for accommodating bag contents, and wherein the pocket has an opening into which to feed, and from which to remove, the bag contents, and wherein the opening can be concealed by a flap of the bag, and wherein the bags are produced from a continuous material web, wherein provision is also made for the continuous material web to be folded to give an at least to some extent two-layered continuous material web, and thereafter the two layers (24, 26) of the continuous material web are connected to one another by virtue of at least one connecting seam (21, 33, 34, 37) being applied, wherein the connecting seam (33, 34) is preferably interrupted and runs in the longitudinal direction of the material web, and thereafter a layer of the double-layered continuous material web is cut open by a preferably through-going severing cut to form the opening for the bags, and thereafter longitudinal and/or transverse seams (21, 33, 34, 37) for the bags are applied to the continuous material web, and thereafter the bags are separated from the continuous material web.
A medium composition for use in culturing adipose-derived mesenchymal stem cells, which comprises: a basic medium, L-ascorbic acid 2-phosphate, fetal bovine serum, basic fibroblast growth factors (b-FGF), insulin, N-acetyl-L-cysteine, calcium chloride, and hydrocortisone, wherein the basic medium is a mixture of Defined Keratinocyte-SFM and α-MEM (Alpha Modification of Eagle's Medium), wherein the mixture ratio of α-MEM to Defined Keratinocyte-SFM is 1: 0.25 to 3.
A lance tube having a central through-hole extending along a longitudinal axis, characterised in that the lance tube comprises: - a double-layered end portion having an annular outer layer of a high temperature corrosion resistant first alloy and an annular inner layer of a second alloy, wherein the annular inner layer and the annular outer layer are mechanically interlocked, and wherein a metallic bond has been formed between the annular inner layer and the annular outer layer by means of hot extrusion, and a mono-layered main portion of the second alloy and wherein the annular inner layer and the annular outer layer are mechanically interlocked by means of a helically extending thread formed in an interface between the inner layer and the outer layer. - a double-layered end portion having an annular outer layer of a high temperature corrosion resistant first alloy and an annular inner layer of a second alloy, wherein the annular inner layer and the annular outer layer are mechanically interlocked, and wherein a metallic bond has been formed between the annular inner layer and the annular outer layer by means of hot extrusion, and a mono-layered main portion of the second alloy and wherein the annular inner layer and the annular outer layer are mechanically interlocked by means of a helically extending thread formed in an interface between the inner layer and the outer layer.
A method for determining a location of one or more user equipment, UE, in a Long Term Evolution, LTE, wireless system, the method comprising: determining that downlink reference signals are available for use in a downlink mode of operation, wherein the downlink reference signals include one or more of LTE position reference signals, PRS, and LTE cell specific reference signals, CRS; determining that uplink reference signals are available for use in an uplink mode of operation, wherein the uplink reference signals include LTE sounding reference signals, SRS, and wherein the downlink reference signals and the uplink reference signals are configured by the network; selecting from among the downlink mode of operation, the uplink mode of operation, and a two-way mode of operation as a mode of operation of the wireless system, wherein the two-way mode of operation is a combination of the downlink mode of operation and the uplink mode of operation; and utilizing the selected mode of operation to calculate a location of each UE among the one or more UE. determining that downlink reference signals are available for use in a downlink mode of operation, wherein the downlink reference signals include one or more of LTE position reference signals, PRS, and LTE cell specific reference signals, CRS; determining that uplink reference signals are available for use in an uplink mode of operation, wherein the uplink reference signals include LTE sounding reference signals, SRS, and wherein the downlink reference signals and the uplink reference signals are configured by the network; selecting from among the downlink mode of operation, the uplink mode of operation, and a two-way mode of operation as a mode of operation of the wireless system, wherein the two-way mode of operation is a combination of the downlink mode of operation and the uplink mode of operation; and utilizing the selected mode of operation to calculate a location of each UE among the one or more UE.