mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the manufacture of a fluoride doped cathode active material wherein said process comprises the steps of (a) providing a particulate oxide or (oxy)hydroxide of TM wherein TM is a combination of metals according to general formula (I), wherein said particulate oxide or (oxy)hydroxide has an average particle diameter (D50) in the range of from 3 to 16 μm, (Ni a Co b Mn c ) 1-d M d (I) with a being in the range of from 0.6 to 0.99, b being zero or in the range of from 0.01 to 0.2, c being in the range of from zero to 0.2, and d being in the range of from zero to 0.1, M is at least one of Al, Mg, Ti, Mo, Nb, Ta, W and Zr, and b + c > zero , and a + b + c = 1 , (b) providing a source of lithium that contains 0.01 to 2.5 % by weight of fluoride, uniformly dispersed within said source of lithium, wherein the source of lithium is selected from lithium hydroxide and lithium oxide and lithium carbonate, (c) mixing said oxide or (oxy)hydroxide of TM with said fluoride-containing source of lithium and, optionally, with additional source of lithium containing less fluoride, and, optionally, with one or more dopants based on at least one metal other than lithium, (d) treating the mixture obtained from step (c) thermally. (a) providing a particulate oxide or (oxy)hydroxide of TM wherein TM is a combination of metals according to general formula (I), wherein said particulate oxide or (oxy)hydroxide has an average particle diameter (D50) in the range of from 3 to 16 μm, (Ni a Co b Mn c ) 1-d M d (I) with a being in the range of from 0.6 to 0.99, b being zero or in the range of from 0.01 to 0.2, c being in the range of from zero to 0.2, and d being in the range of from zero to 0.1, M is at least one of Al, Mg, Ti, Mo, Nb, Ta, W and Zr, and b + c > zero , and a + b + c = 1 , a being in the range of from 0.6 to 0.99, b being zero or in the range of from 0.01 to 0.2, c being in the range of from zero to 0.2, and d being in the range of from zero to 0.1, M is at least one of Al, Mg, Ti, Mo, Nb, Ta, W and Zr, and b + c > zero , and a + b + c = 1 , (b) providing a source of lithium that contains 0.01 to 2.5 % by weight of fluoride, uniformly dispersed within said source of lithium, wherein the source of lithium is selected from lithium hydroxide and lithium oxide and lithium carbonate, (c) mixing said oxide or (oxy)hydroxide of TM with said fluoride-containing source of lithium and, optionally, with additional source of lithium containing less fluoride, and, optionally, with one or more dopants based on at least one metal other than lithium, (d) treating the mixture obtained from step (c) thermally.
A method for processing Circuit Switched Fall Back, CSFB, or Single Radio Voice Call Continuity, SRVCC, during a Selected IP Traffic Offload, or a Coordinated Selected IP Traffic Offload, SIPTO/CSIPTO, service, the method performed by a mobility management entity, MME, and the method comprising: establishing a second Public Data Network, PDN, connection for a user equipment, UE, moving from a first location to a second location, according to an usage of the SIPTO/CSIPTO service after a first PDN connection for the UE is established, wherein the first PDN connection is established with a first PDN gateway, P-GW, which is geographically closest to the first location of the UE and the second PDN connection is established with a second P-GW, which is geographically closest to the second location of the UE, wherein after establishing the second PDN connection for a short-lived service, the first PDN connection is maintained for guaranteeing a service continuity of a long-lived service, storing context information indicating that the first PDN connection is sub-optimal and it is related to SIPTO/CSIPTO, storing context information indicating that the second PDN connection is optimal and it is related to SIPTO/CSIPTO, when CSFB or SRVCC is requested and a packet switched, PS, handover is supported, based on the stored context information, deactivating the suboptimal PDN connection; and when CSFB or SRVCC is requested and a packet switched, PS, handover is not supported, deleting information on the sub-optimal PDN connection from the context of the UE stored in the MME. establishing a second Public Data Network, PDN, connection for a user equipment, UE, moving from a first location to a second location, according to an usage of the SIPTO/CSIPTO service after a first PDN connection for the UE is established, wherein the first PDN connection is established with a first PDN gateway, P-GW, which is geographically closest to the first location of the UE and the second PDN connection is established with a second P-GW, which is geographically closest to the second location of the UE, wherein after establishing the second PDN connection for a short-lived service, the first PDN connection is maintained for guaranteeing a service continuity of a long-lived service, storing context information indicating that the first PDN connection is sub-optimal and it is related to SIPTO/CSIPTO, storing context information indicating that the second PDN connection is optimal and it is related to SIPTO/CSIPTO, when CSFB or SRVCC is requested and a packet switched, PS, handover is supported, based on the stored context information, deactivating the suboptimal PDN connection; and when CSFB or SRVCC is requested and a packet switched, PS, handover is not supported, deleting information on the sub-optimal PDN connection from the context of the UE stored in the MME.
A feed apparatus, comprising a low-frequency feed and a high-frequency feed embedded into the low-frequency feed, wherein the low-frequency feed comprises a plurality of low-frequency array elements arranged in an array, the high-frequency feed comprises a plurality of high-frequency array elements arranged in an array, at least one high-frequency array element is embedded into one low-frequency array element, and the low-frequency array element and each high-frequency array element embedded into the low-frequency array element have a common waveguide wall ; wherein the low-frequency array element is a first metal horn, the high-frequency array element is a second metal horn, and an aperture of the first metal horn is larger than an aperture of the second metal horn; wherein the low-frequency feed comprises at least four first metal horns, and two adjacent first metal horns are fixedly connected; wherein end surfaces of horn mouths of the two adjacent first metal horns are fixed as a whole such that there is no interval between the two adjacent first metal horns, and a plurality of second metal horns are embedded into the first metal horn. wherein the low-frequency array element is a first metal horn, the high-frequency array element is a second metal horn, and an aperture of the first metal horn is larger than an aperture of the second metal horn; wherein the low-frequency feed comprises at least four first metal horns, and two adjacent first metal horns are fixedly connected; wherein end surfaces of horn mouths of the two adjacent first metal horns are fixed as a whole such that there is no interval between the two adjacent first metal horns, and a plurality of second metal horns are embedded into the first metal horn.
A highly fluorinated silicone resin comprising the reaction products of: an M type monomer having a chlorosilane function; a first T type monomer having at least one fluoroalkane group; optionally, a second T type monomer having a (meth)acryloyl functional group; optionally, a D type monomer; and optionally, a Q type monomer; said silicone resin having a fluorine content of at least 55 weight percent based on the total weight, a refractive index at 25° C of less than 1.4, and an uncured viscosity of 1000 to 9000 cps at 25° C, wherein viscosity is measured using a Brookfield Cone/Plate viscometer set to 1/s = 30 at 25° C and wherein refractive index is measured using a Metricon Model 2010/M prism coupler refractometer. an M type monomer having a chlorosilane function; a first T type monomer having at least one fluoroalkane group; optionally, a second T type monomer having a (meth)acryloyl functional group; optionally, a D type monomer; and optionally, a Q type monomer; said silicone resin having a fluorine content of at least 55 weight percent based on the total weight, a refractive index at 25° C of less than 1.4, and an uncured viscosity of 1000 to 9000 cps at 25° C, wherein viscosity is measured using a Brookfield Cone/Plate viscometer set to 1/s = 30 at 25° C and wherein refractive index is measured using a Metricon Model 2010/M prism coupler refractometer.
A digital broadcast system comprising: an input component for receiving a first plurality of stations (A, B, C) and frequency-shifting the first plurality of stations to provide a first multiplex of the first plurality of stations (A, B, C); a first power reduction component for peak reducing the first multiplex and providing a corresponding first output signal; and a first transmitter component for transmitting the first output signal, whereby the first power reduction component is configured such that it peak reduces the first multiplex based on a correction algorithm that controls in-band and out-of-band noise from the peak reduction and operates on a signal in a frequency domain, and characterized in that the first power reduction component is configured such that it undoes a symbol-to-symbol rotating phase offset prior to frequency domain corrections, said symbol-to-symbol rotating phase offset being effected by the frequency-shifting, and in that the first power reduction component is configured such that it reapplies the symbol-to-symbol rotating phase offset following the frequency domain corrections. an input component for receiving a first plurality of stations (A, B, C) and frequency-shifting the first plurality of stations to provide a first multiplex of the first plurality of stations (A, B, C); a first power reduction component for peak reducing the first multiplex and providing a corresponding first output signal; and a first transmitter component for transmitting the first output signal, whereby the first power reduction component is configured such that it peak reduces the first multiplex based on a correction algorithm that controls in-band and out-of-band noise from the peak reduction and operates on a signal in a frequency domain, and characterized in that the first power reduction component is configured such that it undoes a symbol-to-symbol rotating phase offset prior to frequency domain corrections, said symbol-to-symbol rotating phase offset being effected by the frequency-shifting, and in that the first power reduction component is configured such that it reapplies the symbol-to-symbol rotating phase offset following the frequency domain corrections.
A composition of inorganic nanoparticles, for its surgical use as gluing agent or adhesive, for adhering one first biological tissue and one second biological tissue, or for adhering one biological tissue and at least one other article, wherein the composition of nanoparticles is selected from a powder and an aqueous suspension, or aqueous dispersion or aqueous solution, of nanoparticles, wherein the composition of nanoparticles contains no more than 20% by weight of other gluing agent as compared to the weight of the dry matter of the composition.
A method for thermal image processing, the method comprising: obtaining a thermal image acquired by a thermal camera and depicting a scene; obtaining a frequency distribution based on pixel intensities of the thermal image; processing the frequency distribution to determine whether the frequency distribution comprises a peak, caused by a hot object in the scene, which is separated from a thermal background of the scene by more than an intensity threshold; and in response to determining that the frequency distribution comprises the peak which is separated from the thermal background by more than the intensity threshold, processing the thermal image to suppress a ghost image of the hot object in the thermal image, wherein the ghost image is caused by internal reflections of radiation from the hot object in the thermal camera, and wherein the processing of the thermal image comprises: estimating a location of ghost image pixels forming the ghost image; and suppressing the ghost image in the thermal image by adjusting intensities of the ghost image pixels. obtaining a thermal image acquired by a thermal camera and depicting a scene; obtaining a frequency distribution based on pixel intensities of the thermal image; processing the frequency distribution to determine whether the frequency distribution comprises a peak, caused by a hot object in the scene, which is separated from a thermal background of the scene by more than an intensity threshold; and in response to determining that the frequency distribution comprises the peak which is separated from the thermal background by more than the intensity threshold, processing the thermal image to suppress a ghost image of the hot object in the thermal image, wherein the ghost image is caused by internal reflections of radiation from the hot object in the thermal camera, and wherein the processing of the thermal image comprises: estimating a location of ghost image pixels forming the ghost image; and suppressing the ghost image in the thermal image by adjusting intensities of the ghost image pixels. estimating a location of ghost image pixels forming the ghost image; and suppressing the ghost image in the thermal image by adjusting intensities of the ghost image pixels.
A method for confirming an in-situ flow information telemetry, iFIT, capability, comprising: receiving, by a first network device from a network management node , a confirmation packet, wherein the confirmation packet comprises confirmation information about whether a second network device has an iFIT capability, wherein the method further comprises: sending, by the first network device , a data packet comprising iFIT information to the second network device in response to that the second network device has the iFIT capability and a ratio of network devices having the iFIT capability on a path from the first network device to the second network device is greater than a preset value. receiving, by a first network device from a network management node , a confirmation packet, wherein the confirmation packet comprises confirmation information about whether a second network device has an iFIT capability, wherein the method further comprises: sending, by the first network device , a data packet comprising iFIT information to the second network device in response to that the second network device has the iFIT capability and a ratio of network devices having the iFIT capability on a path from the first network device to the second network device is greater than a preset value.
An artificial blood vessel formed by using a resin composition comprising, with respect to 100 parts by mass of a component (A) hydrogenated block copolymer having a MFR, measured at a temperature of 230°C and a load of 2.16 kg, of 1 g/10 min or less: 350 parts by mass or more and 1000 parts by mass or less of a component (B) oil; and 0.01 parts by mass or more and less than 150 parts by mass of a component (C) lubricant, wherein the component (A) contains one or more hydrogenated products, i.e. hydrogen-added products or hydrides, of an aromatic vinyl-conjugated diene block copolymer containing a block unit (X) derived from an aromatic vinyl compound and a block unit (Y) derived from a conjugated diene, and the component (C) lubricant contains one or more surfactant selected from ionic surfactants and nonionic surfactants. wherein the component (A) contains one or more hydrogenated products, i.e. hydrogen-added products or hydrides, of an aromatic vinyl-conjugated diene block copolymer containing a block unit (X) derived from an aromatic vinyl compound and a block unit (Y) derived from a conjugated diene, and the component (C) lubricant contains one or more surfactant selected from ionic surfactants and nonionic surfactants.
Test stand for motor vehicles, in which forces acting on the contact patches of the tyres during acceleration as well as during braking are measured, comprising a test roller, a slip sensor and/or tachometer arranged on the test roller, and a strain sensor, wherein the strain sensor comprises at least one sensor element for measuring the forces, and an evaluation device for processing the measured forces and at least one additional item of information, wherein the additional item of information relates to a slip signal of the slip sensor and/or a rotational speed of the tachometer, wherein the evaluation device is integrated into the strain sensor, and wherein the strain sensor is designed as a sensor node of a sensor network of a plurality of interlinked sensor nodes. a test roller, a slip sensor and/or tachometer arranged on the test roller, and a strain sensor, wherein the strain sensor comprises at least one sensor element for measuring the forces, and an evaluation device for processing the measured forces and at least one additional item of information, wherein the additional item of information relates to a slip signal of the slip sensor and/or a rotational speed of the tachometer, wherein the evaluation device is integrated into the strain sensor, and wherein the strain sensor is designed as a sensor node of a sensor network of a plurality of interlinked sensor nodes.
A pneumatic sensing apparatus for use in an overheat or fire alarm system comprising a sensing assembly comprising a sensing means containing a pressurized gas, coupled to a pressure sensor wherein said pressure sensor is configured to produce a signal that is indicative of said gas pressure, and wherein said pressure sensor comprises an optical pressure sensor and wherein said signal comprises an optical signal; and further comprising a control unit , said control unit comprising an interrogator and wherein said pressure sensor is in communication with said interrogator , said interrogator comprising means to receive said signal from said pressure sensor, and means to process said signal to provide data indicative of said gas pressure, and further comprising alarm means characterized in that said interrogator is in communication with said alarm means and wherein said interrogator further comprises means to compare said data indicative of said gas pressure to a first and a second gas pressure threshold, said interrogation means further being configured to activate said alarm means to provide an alarm output based on said comparison to said second gas pressure threshold; wherein said interrogator is configured to activate said alarm means if said signal is below said second pressure threshold, thereby indicating a fault in the apparatus. characterized in that said interrogator is in communication with said alarm means and wherein said interrogator further comprises means to compare said data indicative of said gas pressure to a first and a second gas pressure threshold, said interrogation means further being configured to activate said alarm means to provide an alarm output based on said comparison to said second gas pressure threshold; wherein said interrogator is configured to activate said alarm means if said signal is below said second pressure threshold, thereby indicating a fault in the apparatus.
A 3D-printed product made of an alloy comprising a metal matrix and grains of carbides embedded in the metal matrix; wherein the alloy comprises Carbon: equal to or greater than 2.47 and equal to or less than 2.55 weight%, Tungsten: equal to or greater than 10 and equal to or less than 12 weight%, Chromium: equal to or greater than 3.5 and equal to or less than 4.5 weight% Cobalt: equal to or greater than 14 and equal to or less than 18 weight%; Molybdenum: equal to or greater than 4 and equal to or less than 6 weight%; Vanadium: equal to or greater than 5 and equal to or less than 8 weight%; optionally trace amount of impurities; Iron: balance; and wherein the total amount of carbide is 20-30 volume%. wherein the alloy comprises Carbon: equal to or greater than 2.47 and equal to or less than 2.55 weight%, Tungsten: equal to or greater than 10 and equal to or less than 12 weight%, Chromium: equal to or greater than 3.5 and equal to or less than 4.5 weight% Cobalt: equal to or greater than 14 and equal to or less than 18 weight%; Molybdenum: equal to or greater than 4 and equal to or less than 6 weight%; Vanadium: equal to or greater than 5 and equal to or less than 8 weight%; optionally trace amount of impurities; Iron: balance; and Carbon: equal to or greater than 2.47 and equal to or less than 2.55 weight%, Tungsten: equal to or greater than 10 and equal to or less than 12 weight%, Chromium: equal to or greater than 3.5 and equal to or less than 4.5 weight% Cobalt: equal to or greater than 14 and equal to or less than 18 weight%; Molybdenum: equal to or greater than 4 and equal to or less than 6 weight%; Vanadium: equal to or greater than 5 and equal to or less than 8 weight%; optionally trace amount of impurities; Iron: balance; and wherein the total amount of carbide is 20-30 volume%.
Plug-in contact for making electrical contact with a printed circuit board by inserting the plug-in contact into a contact hole in the printed circuit board , having two contact legs which are resilient relative to one another, a terminal region and a connecting region , wherein the connecting region connects the two contact legs to one another and to the terminal region , and wherein the plug-in contact is designed from a metallic flat material, wherein the two contact legs each have a first section and a second section adjoining the first section in the insertion direction (E) of the plug-in contact , wherein the two contact legs are bent so that the connecting region and the first sections of the two contact legs adjoining the connecting region together form a U-shaped contour, and wherein a respective contact-making region contacting the contact hole in the inserted state is designed on the outer sides of the second sections of the two contact legs facing away from each other, wherein the second sections of the two contact legs each have, at least in their contact-making region , an outer contour which is rounded in cross section, wherein the two contact legs are arranged mirror-symmetrically with respect to one another and are spaced apart from one another over their entire longitudinal extent, wherein the spacing of the contact legs is smallest in the region of their free ends and largest in the region of their first sections , characterized in that the two contact legs are bent out of the plane of the connecting region , and that the contact-making regions of the two contact legs are designed to be spherical. wherein the two contact legs each have a first section and a second section adjoining the first section in the insertion direction (E) of the plug-in contact , wherein the two contact legs are bent so that the connecting region and the first sections of the two contact legs adjoining the connecting region together form a U-shaped contour, and wherein a respective contact-making region contacting the contact hole in the inserted state is designed on the outer sides of the second sections of the two contact legs facing away from each other, wherein the second sections of the two contact legs each have, at least in their contact-making region , an outer contour which is rounded in cross section, wherein the two contact legs are arranged mirror-symmetrically with respect to one another and are spaced apart from one another over their entire longitudinal extent, wherein the spacing of the contact legs is smallest in the region of their free ends and largest in the region of their first sections , characterized in that the two contact legs are bent out of the plane of the connecting region , and that the contact-making regions of the two contact legs are designed to be spherical.