mhurhangee/ep-ind-claims huggingface dataset:
A base station apparatus comprising: means for determining for the base station apparatus at least one spectrum load characteristic; and means for transmitting the at least one spectrum load characteristic to a further apparatus, wherein the base station apparatus is further configured to transmit the at least one spectrum load characteristic to the further apparatus on at least one of: a communication physical layer; a communication control layer; and characterised in that the at least one spectrum load characteristic is transmitted within a message comprising a pre-determined user equipment identifier value which specifies that the message contains the at least one spectrum load characteristic. means for determining for the base station apparatus at least one spectrum load characteristic; and means for transmitting the at least one spectrum load characteristic to a further apparatus, wherein the base station apparatus is further configured to transmit the at least one spectrum load characteristic to the further apparatus on at least one of: a communication physical layer; a communication control layer; and characterised in that the at least one spectrum load characteristic is transmitted within a message comprising a pre-determined user equipment identifier value which specifies that the message contains the at least one spectrum load characteristic. a communication physical layer; a communication control layer; and characterised in that the at least one spectrum load characteristic is transmitted within a message comprising a pre-determined user equipment identifier value which specifies that the message contains the at least one spectrum load characteristic.
A memory allocation method, wherein the method is applied to a computer system, and the computer system comprises a memory resource, a basic input/output system, BIOS, and an operating system, OS, wherein the memory resource comprises mirrored memory, and when the operating system runs, characterized in that, the method comprises: detecting whether data requiring memory allocation carries a mirror identifier, wherein the mirror identifier is set on kernel data and critical user data, and the critical user data is user-specified data, in user data, that requires mirrored storage; and when detecting that the data requiring memory allocation carries the mirror identifier, allocating, from an unoccupied part of the mirrored memory, memory to the data requiring memory allocation, wherein the mirrored memory is indicated by a mirrored memory address range that is provided by the BIOS to the OS during initialization of the OS, wherein the method further comprises: when the data requiring memory allocation is the critical user data, determining whether data of a same process is stored in the mirrored memory, wherein the data of the same process is data generated before the critical user data by the same process that generates the critical user data; and if the data of the same process is not stored in the mirrored memory, migrating the data of the same process to the mirrored memory. detecting whether data requiring memory allocation carries a mirror identifier, wherein the mirror identifier is set on kernel data and critical user data, and the critical user data is user-specified data, in user data, that requires mirrored storage; and when detecting that the data requiring memory allocation carries the mirror identifier, allocating, from an unoccupied part of the mirrored memory, memory to the data requiring memory allocation, wherein the mirrored memory is indicated by a mirrored memory address range that is provided by the BIOS to the OS during initialization of the OS, wherein the method further comprises: when the data requiring memory allocation is the critical user data, determining whether data of a same process is stored in the mirrored memory, wherein the data of the same process is data generated before the critical user data by the same process that generates the critical user data; and if the data of the same process is not stored in the mirrored memory, migrating the data of the same process to the mirrored memory. when the data requiring memory allocation is the critical user data, determining whether data of a same process is stored in the mirrored memory, wherein the data of the same process is data generated before the critical user data by the same process that generates the critical user data; and if the data of the same process is not stored in the mirrored memory, migrating the data of the same process to the mirrored memory.
A system comprising a weighing scale, a store-associated database comprised on a remote server, and a portable computer device in communication with the store-associated database via a telecommunications network, or an internet connection, or a wireless communications protocol, or via the weighing scale, characterised in that the portable computer device is additionally in communication with the scale via a wireless communications protocol, and the system further comprises an indoor positioning system adapted to show the position of a user of the portable computer device via a map provided by an application installed on the portable computer device. the portable computer device is additionally in communication with the scale via a wireless communications protocol, and the system further comprises an indoor positioning system adapted to show the position of a user of the portable computer device via a map provided by an application installed on the portable computer device.
A transmit/receive module for an antenna array comprising a plurality of said modules in parallel and that in use is connected with first and second element antennas and that applies a predetermined phase shift amount to transmitting signals to be supplied to the element antennas and to receive signals received by the element antennas, wherein the transmit/receive module comprises: first and second signal switches (21a, 21b) for connection respectively with first and second element antennas (12a, 12b); a transmitting phase shifter for applying a predetermined phase shift amount to the transmitting signal and transmitting with the same phase being applied to the first and second element antennas; a transmitting amplifier for amplifying the transmitting signal to which the predetermined phase shift amount has been applied by the transmitting phase shifter; a distributor for distributing the transmitting signal amplified by the transmitting amplifier to the first and second signal switches (21a, 21b); first and second receiving amplifiers (22a, 22b) that are connected to the first and second signal switches to respectively amplify the received signals received by the first and second element antennas; and first and second receiving phase shifters (23a, 23b) for applying a predetermined phase shift amount respectively to the received signals amplified by the first and second receiving amplifiers with receiving different phases being applied to the first and second element antennas. first and second signal switches (21a, 21b) for connection respectively with first and second element antennas (12a, 12b); a transmitting phase shifter for applying a predetermined phase shift amount to the transmitting signal and transmitting with the same phase being applied to the first and second element antennas; a transmitting amplifier for amplifying the transmitting signal to which the predetermined phase shift amount has been applied by the transmitting phase shifter; a distributor for distributing the transmitting signal amplified by the transmitting amplifier to the first and second signal switches (21a, 21b); first and second receiving amplifiers (22a, 22b) that are connected to the first and second signal switches to respectively amplify the received signals received by the first and second element antennas; and first and second receiving phase shifters (23a, 23b) for applying a predetermined phase shift amount respectively to the received signals amplified by the first and second receiving amplifiers with receiving different phases being applied to the first and second element antennas.
A stator for an electric motor, the stator comprising: a plurality of stator coils; a support for holding the coils around a rotor of the motor; and a cylindrical sleeve mounted radially inwardly of the support to form a barrier in use between cooling fluid passing over the coils and a rotor located within the stator, characterised in that inner windings of the coils are less densely packed than outer windings of the coils to assist circulation of the fluid over the coils. a plurality of stator coils; a support for holding the coils around a rotor of the motor; and a cylindrical sleeve mounted radially inwardly of the support to form a barrier in use between cooling fluid passing over the coils and a rotor located within the stator,
A coated medical device, comprising: a tissue penetrating surface; and an abradable coating on the medical device comprising at least one antimicrobial agent in the coating; wherein at least a portion of the medical device is coated with a lubricious polymer, and the abradable coating is coated on said lubricious polymer; and wherein said lubricious polymer is less abradable than said abradable coating. a tissue penetrating surface; and an abradable coating on the medical device comprising at least one antimicrobial agent in the coating; wherein at least a portion of the medical device is coated with a lubricious polymer, and the abradable coating is coated on said lubricious polymer; and wherein said lubricious polymer is less abradable than said abradable coating.
A composition for one-step RT-PCR reactions comprising: at least one thermostable DNA polymerase, at least one thermostable reverse transcriptase, one or more labelled probes, and a combination of blocking agents to block one or more PCR inhibitors, the combination comprising fish gelatin and BSA, wherein the BSA is at a concentration of about 500 ng/μl to 5000 ng/μl and/or wherein said fish gelatin is at a concentration of about 0.4% to 4%, wherein said combination decreases Ct by at least 10% or by at least 1 when compared to a composition that does not comprise any PCR inhibitor blocking agents. at least one thermostable DNA polymerase, at least one thermostable reverse transcriptase, one or more labelled probes, and a combination of blocking agents to block one or more PCR inhibitors, the combination comprising fish gelatin and BSA, wherein the BSA is at a concentration of about 500 ng/μl to 5000 ng/μl and/or wherein said fish gelatin is at a concentration of about 0.4% to 4%, wherein said combination decreases Ct by at least 10% or by at least 1 when compared to a composition that does not comprise any PCR inhibitor blocking agents.
Optical microscope for use in a magnetic resonance imaging scanner, the microscope comprising: - an objective lens assembly for collecting light from a sample to be investigated within an MRI scanner, the objective lens assembly having a first optical axis; - observation optics having a second optical axis perpendicular to the first optical axis; - a light path deflection assembly (38, 40, 42) for deflecting light from the objective lens assembly to the observation optics; wherein the optical microscope is adapted to observe the sample located in an object plane of the microscope, wherein the second optical axis is not more than 20 mm away from the object plane. - an objective lens assembly for collecting light from a sample to be investigated within an MRI scanner, the objective lens assembly having a first optical axis; - observation optics having a second optical axis perpendicular to the first optical axis; - a light path deflection assembly (38, 40, 42) for deflecting light from the objective lens assembly to the observation optics;
A compound selected from the group consisting of D-β-hydroxybutyric acid and metabolic precursors of D-β-hydroxybutyric, acid or acetoacetate vvhich comprise moieties selected from the group consisting of -1, 3-butandiol, acetoacetyl and D-β-hydroxybutyryl moieties and physiologically acceptable salts and esters thereof wherein the metabolic precursors are selected from the group consisting of (i) oligomers of 2 to 100 repeats of D-β-hydroxybutyric acid or their esters with C 1 -C 4 alkyl alcohols, dihydric alcohols or trihydric alcohols or acetoacetate. (ii) esters of D-β-hydroxybutyric acid with monohydric alcohols or dihydric alcohols, for use in the treatment of insulin resistant diabetes or epilepsy wherein the treatment administers the compound orally. (i) oligomers of 2 to 100 repeats of D-β-hydroxybutyric acid or their esters with C 1 -C 4 alkyl alcohols, dihydric alcohols or trihydric alcohols or acetoacetate. (ii) esters of D-β-hydroxybutyric acid with monohydric alcohols or dihydric alcohols,
Vulcanisable elastomeric composition for tyre components, comprising: - X phr of a natural rubber from Guayule, wherein X is at least equal to 5 phr, wherein said rubber comprises from 5 to 20% by weight of natural resins from Guayule, and at least 0.1 phr of at least one antioxidant, and wherein said rubber is characterised by Mooney viscosity of at least 40 MU, by Wallace plasticity P0 of at least 25 and by Wallace plasticity P30 of at least 10, - Y phr of at least one solid diene elastomeric polymer (A'), wherein the sum of the rubber phr contained in X and of the phr Y is equal to 100 phr, - at least 10 phr of at least one reinforcing filler, - at least 0.05 phr of at least one vulcanising agent. - X phr of a natural rubber from Guayule, wherein X is at least equal to 5 phr, wherein said rubber comprises from 5 to 20% by weight of natural resins from Guayule, and at least 0.1 phr of at least one antioxidant, and wherein said rubber is characterised by Mooney viscosity of at least 40 MU, by Wallace plasticity P0 of at least 25 and by Wallace plasticity P30 of at least 10, - Y phr of at least one solid diene elastomeric polymer (A'), - Y phr of at least one solid diene elastomeric polymer (A'), wherein the sum of the rubber phr contained in X and of the phr Y is equal to 100 phr, - at least 10 phr of at least one reinforcing filler, - at least 0.05 phr of at least one vulcanising agent. - at least 10 phr of at least one reinforcing filler, - at least 0.05 phr of at least one vulcanising agent.
A CTP-modified polypeptide consisting of an erythropoietin, and three CTPs, wherein said CTPs are chorionic gonadotropin carboxy terminal peptides from the beta-subunit of human chorionic gonadotropin, wherein the first CTP is attached to the amino terminus of said EPO, and the second and third CTPs are attached to the carboxy terminus of said EPO, wherein said CTPs comprise the amino acid sequence SSSSKAPPPS, wherein said EPO lacks a signal peptide, and wherein the amino acid sequence of said CTP-modified polypeptide comprises the sequence of amino acids 28-277 of SEQ ID NO: 3 or amino acids 28-249 of SEQ ID NO: 6.
A temporary bonding method comprising: providing a stack comprising: a first substrate having a back surface and a device surface, said device surface having a peripheral region and a central region; a second substrate, bonded to the first substrate, having a carrier surface; an edge bond adjacent said peripheral region and said carrier surface; and at least one layer selected from the group consisting of: a lift-off layer between said edge bond and said device surface; and a lift-off layer between said edge bond and said carrier surface; and separating said first and second substrates; wherein said lift-off layer has a thickness of less than 3 μ m and comprises a composition which can be removed by dissolving said lift-off layer in a solution selected from the group consisting of 1% hydrochloric acid aqueous solution, 50% acetic acid aqueous solution, isopropanol, 1-dodecene, R-limonene, cyclopentanone, PGME, and tetra-methylammonium hydroxide. providing a stack comprising: a first substrate having a back surface and a device surface, said device surface having a peripheral region and a central region; a second substrate, bonded to the first substrate, having a carrier surface; an edge bond adjacent said peripheral region and said carrier surface; and at least one layer selected from the group consisting of: a lift-off layer between said edge bond and said device surface; and a lift-off layer between said edge bond and said carrier surface; and a first substrate having a back surface and a device surface, said device surface having a peripheral region and a central region; a second substrate, bonded to the first substrate, having a carrier surface; an edge bond adjacent said peripheral region and said carrier surface; and at least one layer selected from the group consisting of: a lift-off layer between said edge bond and said device surface; and a lift-off layer between said edge bond and said carrier surface; and a lift-off layer between said edge bond and said device surface; and a lift-off layer between said edge bond and said carrier surface; and separating said first and second substrates; wherein said lift-off layer has a thickness of less than 3 μ m and comprises a composition which can be removed by dissolving said lift-off layer in a solution selected from the group consisting of 1% hydrochloric acid aqueous solution, 50% acetic acid aqueous solution, isopropanol, 1-dodecene, R-limonene, cyclopentanone, PGME, and tetra-methylammonium hydroxide.
A compound which is selected from: N,6-dimethyl-3-(2 H -1,2,3-triazol-2-yl)- N -[ -1-{[5-(trifluoro methyl)pyrazin-2-yl]amino}propan-2-yl]pyridine-2-carboxamide; and N,6-dimethyl-3-(2 H -1,2,3-triazol-2-yl)- N -[ -1-{[5-(trifluoro methyl)pyrimidin-2-yl]amino}propan-2-yl]pyridine-2-carboxamide; or a pharmaceutically acceptable salt or solvate thereof. N,6-dimethyl-3-(2 H -1,2,3-triazol-2-yl)- N -[ -1-{[5-(trifluoro methyl)pyrazin-2-yl]amino}propan-2-yl]pyridine-2-carboxamide; and N,6-dimethyl-3-(2 H -1,2,3-triazol-2-yl)- N -[ -1-{[5-(trifluoro methyl)pyrimidin-2-yl]amino}propan-2-yl]pyridine-2-carboxamide;
A gas turbine engine for an aircraft comprising: a compressor rotor including blades and a disk, with a bore defined radially inwardly of said disk; a combustor; and a tap for directing the products of combustion first to a valve and then into said bore of said disk via a supply line (201; 201B); characterised by further comprising: at least two temperature sensors (204,206) for sensing a temperature of said products of combustion downstream of said valve, and a control comparing sensed temperatures from said at least two temperature sensors (204,206) to ensure said at least two temperature sensors (204,206) are functioning properly, said sensed temperatures being utilized to control said valve; and in that: the control is programmed to compare the sensed temperatures as a check on the accuracy of the at least two temperature sensors, and if the sensed temperatures are not equal, then comparing said sensed temperatures to an estimated temperature based upon another engine parameter. a compressor rotor including blades and a disk, with a bore defined radially inwardly of said disk; a combustor; and a tap for directing the products of combustion first to a valve and then into said bore of said disk via a supply line (201; 201B); characterised by further comprising: at least two temperature sensors (204,206) for sensing a temperature of said products of combustion downstream of said valve, and a control comparing sensed temperatures from said at least two temperature sensors (204,206) to ensure said at least two temperature sensors (204,206) are functioning properly, said sensed temperatures being utilized to control said valve; and in that: the control is programmed to compare the sensed temperatures as a check on the accuracy of the at least two temperature sensors, and if the sensed temperatures are not equal, then comparing said sensed temperatures to an estimated temperature based upon another engine parameter.
A composite substrate comprising a piezoelectric substrate that is a single-crystal substrate composed of lithium tantalate or lithium niobate, a support substrate that is a single-crystal silicon substrate, and an amorphous layer joining together the piezoelectric substrate and the support substrate, characterized in that the amorphous layer contains 3 to 14 atomic percent of Ar.
A sole mold (200; 300) for manufacturing a sole from a plurality of particles comprising: a. at least one first opening for supplying the particles; b. at least two second openings for supplying a gaseous and/or liquid medium to bond and / or fuse the particles together; characterized in that c. at least a portion of the sole mold (200; 300) is manufactured by an additive manufacturing method; and d. in that the at least two second openings have a biggest dimension smaller than the average size of the particles to be molded in the sole mold (200; 300). a. at least one first opening for supplying the particles; b. at least two second openings for supplying a gaseous and/or liquid medium to bond and / or fuse the particles together; characterized in that c. at least a portion of the sole mold (200; 300) is manufactured by an additive manufacturing method; and d. in that the at least two second openings have a biggest dimension smaller than the average size of the particles to be molded in the sole mold (200; 300).