mhurhangee/patent-ind-claim-en huggingface dataset:
A device for the temporary storage of gaseous substances, in particular gas storage device , at least comprising - a gas storage space , - an inner membrane , which inner membrane spatially delimits the gas storage space with an inner side facing the gas storage space , as well as - an outer membrane , which outer membrane is arranged at least in sections around an outer side of the inner membrane , which outer side is facing away from the gas storage space , wherein an intermediate space is formed between the outer side of the inner membrane and an inner side of the outer membrane that is facing the outer side of the inner membrane , wherein it is provided that within the outer membrane , in particular within at least one outer membrane segment of the outer membrane , at least one spatially limited cavity is provided, which cavity is fluidically coupled to the intermediate space , characterised in that the at least one cavity is formed by at least two material sections, in particular by a first material section and by a second material section , the first material section being designed to be fluid-permeable at least in sections, and wherein the first material section comprising a grid structure, a grid network or a similar perforated structure having a multiplicity of openings, and wherein the first material section is integrated into the respective outer membrane segment . - a gas storage space , - an inner membrane , which inner membrane spatially delimits the gas storage space with an inner side facing the gas storage space , as well as - an outer membrane , which outer membrane is arranged at least in sections around an outer side of the inner membrane , which outer side is facing away from the gas storage space , wherein an intermediate space is formed between the outer side of the inner membrane and an inner side of the outer membrane that is facing the outer side of the inner membrane , wherein it is provided that within the outer membrane , in particular within at least one outer membrane segment of the outer membrane , at least one spatially limited cavity is provided, which cavity is fluidically coupled to the intermediate space , characterised in that the at least one cavity is formed by at least two material sections, in particular by a first material section and by a second material section , the first material section being designed to be fluid-permeable at least in sections, and wherein the first material section comprising a grid structure, a grid network or a similar perforated structure having a multiplicity of openings, and wherein the first material section is integrated into the respective outer membrane segment .
Method for preparing ( S ) 4-[5-(3,5-dichlorophenyl)-5-(trifluoromethyl)-4Hisoxazol-3yl)]-2-methyl-benzoic acid according to Formula from ( RS ) 4-[5-(3,5-dichlorophenyl)-5-(trifluoromethyl)-4H-isoxazol-3-yl)]-2-methyl-benzoic acid according to Formula comprising the steps of: (i) reacting ( RS ) 4-[5-(3,5-dichlorophenyl)-5-(trifluoromethyl)-4H-isoxazol-3-yl)]-2-methyl-benzoic acid with a compound of Formula , wherein R ethyl, in an organic solvent being methyl tert -butyl-ether to form a precipitate and a supernatant solution (ii) separating the precipitate from step (i) from the supernatant solution (iii) treating the precipitate from step (ii) with acidic aqueous solution, and (iv) separating ( S )-4-[5-(3,5-dichlorophenyl)-5-(trifluoromethyl)-4H-isoxazol-3-yl)]-2-methyl-benzoic acid from the acidic aqueous solution of step (iii). (i) reacting ( RS ) 4-[5-(3,5-dichlorophenyl)-5-(trifluoromethyl)-4H-isoxazol-3-yl)]-2-methyl-benzoic acid with a compound of Formula , wherein R ethyl, in an organic solvent being methyl tert -butyl-ether to form a precipitate and a supernatant solution (ii) separating the precipitate from step (i) from the supernatant solution (iii) treating the precipitate from step (ii) with acidic aqueous solution, and (iv) separating ( S )-4-[5-(3,5-dichlorophenyl)-5-(trifluoromethyl)-4H-isoxazol-3-yl)]-2-methyl-benzoic acid from the acidic aqueous solution of step (iii).
A planet carrier for a speed reducer of a turbomachine , this planet carrier having a main axis X and comprising: - a cage carrier comprising an annular row of axial fingers about the axis X, which comprises first connection elements, and - a cage comprising an internal cavity configured to contain a central sun gear of axis X of rotation and an annular row of planet gears arranged around the axis X and meshed with said sun gear as well as with a ring gear intended to surround the cage , the cage comprising at its periphery housings and second connection elements which are mounted in said housings and which cooperate with the first connection elements to form connections between the cage carrier and the cage , said connections having at least one degree of freedom, the cage comprising two shells which are axially assembled to each other, said first or second connection elements comprising broaches oriented radially with respect to said axis X and passing through radial orifices (220a1, 220a2, 220b1, 220b2) of said shells , characterised in that each of the shells comprises tabs evenly distributed about the axis X and being at least partly superimposed in radial direction with the tabs of the other shell , the tabs comprising one or two orifices (220a1, 220a2, 220b1, 220b2) for mounting each of the broaches . - a cage carrier comprising an annular row of axial fingers about the axis X, which comprises first connection elements, and - a cage comprising an internal cavity configured to contain a central sun gear of axis X of rotation and an annular row of planet gears arranged around the axis X and meshed with said sun gear as well as with a ring gear intended to surround the cage , the cage comprising at its periphery housings and second connection elements which are mounted in said housings and which cooperate with the first connection elements to form connections between the cage carrier and the cage , said connections having at least one degree of freedom, the cage comprising two shells which are axially assembled to each other, said first or second connection elements comprising broaches oriented radially with respect to said axis X and passing through radial orifices (220a1, 220a2, 220b1, 220b2) of said shells , characterised in that each of the shells comprises tabs evenly distributed about the axis X and being at least partly superimposed in radial direction with the tabs of the other shell , the tabs comprising one or two orifices (220a1, 220a2, 220b1, 220b2) for mounting each of the broaches . the cage comprising two shells which are axially assembled to each other, said first or second connection elements comprising broaches oriented radially with respect to said axis X and passing through radial orifices (220a1, 220a2, 220b1, 220b2) of said shells , characterised in that each of the shells comprises tabs evenly distributed about the axis X and being at least partly superimposed in radial direction with the tabs of the other shell , the tabs comprising one or two orifices (220a1, 220a2, 220b1, 220b2) for mounting each of the broaches .
A power inverter comprising: an input configured to receive input DC power; an output configured to provide output AC power to a load; a power conversion circuit coupled to the input and configured with a first output line and a second output line to provide an output voltage across the first output line and the second output line, the first output line coupled to the output and configured to provide output AC current at the output; a capacitor coupled to a junction of the first output line and the output, and coupled to the second output line; and a controller coupled to the power conversion circuit and configured to: receive a first current measurement for the first output line; receive a first voltage measurement across the capacitor; calculate a first derivative voltage value based on the first voltage measurement; calculate a first capacitance value for the capacitor at startup of the power device; based on a known load and based on dividing the first current measurement by the first derivative voltage value; determine a second current value through the capacitor; determine a load current based on the first current measurement and the second current value and periodically adjust a capacitance value for the capacitor. an input configured to receive input DC power; an output configured to provide output AC power to a load; a power conversion circuit coupled to the input and configured with a first output line and a second output line to provide an output voltage across the first output line and the second output line, the first output line coupled to the output and configured to provide output AC current at the output; a capacitor coupled to a junction of the first output line and the output, and coupled to the second output line; and a controller coupled to the power conversion circuit and configured to: receive a first current measurement for the first output line; receive a first voltage measurement across the capacitor; calculate a first derivative voltage value based on the first voltage measurement; calculate a first capacitance value for the capacitor at startup of the power device; based on a known load and based on dividing the first current measurement by the first derivative voltage value; determine a second current value through the capacitor; determine a load current based on the first current measurement and the second current value and periodically adjust a capacitance value for the capacitor. receive a first current measurement for the first output line; receive a first voltage measurement across the capacitor; calculate a first derivative voltage value based on the first voltage measurement; calculate a first capacitance value for the capacitor at startup of the power device; based on a known load and based on dividing the first current measurement by the first derivative voltage value; determine a second current value through the capacitor; determine a load current based on the first current measurement and the second current value and periodically adjust a capacitance value for the capacitor.
A method for wireless communication by a transmitting device, comprising: identifying a phase noise metric associated with at least one receiving device, wherein the phase noise metric provides an indication of the amount of phase noise expected for the receiving device; determining a phase noise pilot configuration based, at least in part, on the identified phase noise metric; and providing an indication of the phase noise pilot configuration to the at least one receiving device via at least one of a radio resource control, RRC, signaling, a physical downlink control channel, PDCCH, or a downlink control information, DCI, wherein presence of phase noise pilots in a subframe is indicated via the RRC signaling and a tone pattern for the phase noise is indicated implicitly by one or more parameters carried in the DCI. identifying a phase noise metric associated with at least one receiving device, wherein the phase noise metric provides an indication of the amount of phase noise expected for the receiving device; determining a phase noise pilot configuration based, at least in part, on the identified phase noise metric; and providing an indication of the phase noise pilot configuration to the at least one receiving device via at least one of a radio resource control, RRC, signaling, a physical downlink control channel, PDCCH, or a downlink control information, DCI, wherein presence of phase noise pilots in a subframe is indicated via the RRC signaling and a tone pattern for the phase noise is indicated implicitly by one or more parameters carried in the DCI.
An optical fiber sensor comprising: an optical fiber configured from a core for propagating light irradiated from a light source disposed on one end to a detector disposed on the other end and a cladding formed on the outer periphery of the core ; a magnetic body disposed on an optical axis of the optical fiber ; the optical fiber sensor characterized in further comprising: a first dielectric material array disposed on one side of the magnetic body in the optical axis direction, the first dielectric material array is formed by regularly arraying two or more kinds of dielectric materials, each having a different refractive index, along the optical axis direction; and a second dielectric material array disposed on the other side of the magnetic body in the optical axis direction, the second dielectric material array is formed by regularly arraying two or more kinds of dielectric materials, each having a different refractive index, along the optical axis direction; wherein the magnetic body , the first dielectric material array , and the second dielectric material array constitute a dielectric mirror for multiple reflections of light of a predetermined wavelength between the first dielectric material array and the second dielectric material array . an optical fiber configured from a core for propagating light irradiated from a light source disposed on one end to a detector disposed on the other end and a cladding formed on the outer periphery of the core ; a magnetic body disposed on an optical axis of the optical fiber ; a first dielectric material array disposed on one side of the magnetic body in the optical axis direction, the first dielectric material array is formed by regularly arraying two or more kinds of dielectric materials, each having a different refractive index, along the optical axis direction; and a second dielectric material array disposed on the other side of the magnetic body in the optical axis direction, the second dielectric material array is formed by regularly arraying two or more kinds of dielectric materials, each having a different refractive index, along the optical axis direction; wherein the magnetic body , the first dielectric material array , and the second dielectric material array constitute a dielectric mirror for multiple reflections of light of a predetermined wavelength between the first dielectric material array and the second dielectric material array .
A resilient substrate-free surface covering element comprising plastic particles, the resilient substrate-free surface covering element being obtained from pressing together particles in the form of shreds, crumbs, chips, flakes, pebbles, granules or a mix thereof, so as to obtain a surface covering element comprising agglomerated plastic particles and having a uniform composition across its thickness, characterized in that said surface covering element comprises interlocking means to connect said resilient substrate-free surface covering element to another resilient substrate-free surface covering element, wherein the interlocking means comprise first and second interlocking means, said first interlocking means being complementary to, and for cooperation with, said second interlocking means, wherein the interlocking means form a hook and loop engagement.
A repeater comprising: a rare-Earth doped fiber amplifier that amplifies an optical signal and operates at least partially in the gain saturation regime; a doped fiber amplifier optical pump configured to supply optical pump power to the rare-Earth doped fiber amplifier ; a Raman pump configured to provide Raman amplification to the optical signal in which the Raman gain of the optical signal has a tilt of at least 1 dB, wherein the tilt of the Raman gain of the optical signal is the maximum Raman gain experienced by any optical channels of the optical signal minus the minimum Raman gain experienced by any of the optical channels of the optical signal; a gain flattening filter at some point or multiple points in the optical signal path and configured to flatten gain of the optical signal ; a tilt sensor configured to detect tilt of the optical signal downstream of the rare-Earth doped fiber amplifier in the optical path, wherein the tilt of the optical signal detected by the tilt sensor is the maximum signal gain of any of the optical channels minus the minimum gain of any of the optical channels; and a tilt adjustment mechanism configured to permit adjusting of the tilt detected at the tilt sensor to within 1 dB gain by controlling a power of at least one of the optical pump powers supplied by the doped fiber amplifier optical pump and the Raman pump that influences tilt measured by the tilt sensor a rare-Earth doped fiber amplifier that amplifies an optical signal and operates at least partially in the gain saturation regime; a doped fiber amplifier optical pump configured to supply optical pump power to the rare-Earth doped fiber amplifier ; a Raman pump configured to provide Raman amplification to the optical signal in which the Raman gain of the optical signal has a tilt of at least 1 dB, wherein the tilt of the Raman gain of the optical signal is the maximum Raman gain experienced by any optical channels of the optical signal minus the minimum Raman gain experienced by any of the optical channels of the optical signal; a gain flattening filter at some point or multiple points in the optical signal path and configured to flatten gain of the optical signal ; a tilt sensor configured to detect tilt of the optical signal downstream of the rare-Earth doped fiber amplifier in the optical path, wherein the tilt of the optical signal detected by the tilt sensor is the maximum signal gain of any of the optical channels minus the minimum gain of any of the optical channels; and a tilt adjustment mechanism configured to permit adjusting of the tilt detected at the tilt sensor to within 1 dB gain by controlling a power of at least one of the optical pump powers supplied by the doped fiber amplifier optical pump and the Raman pump that influences tilt measured by the tilt sensor
A method comprising: performing , by a spectrum sharing adaptation system , allocation and transmission authorization of a shared spectrum resource to a network element of a communication network, wherein the shared spectrum resource is on frequencies non-exclusively licensed to the communication network, and wherein the spectrum sharing adaptation system allocates the shared spectrum resource to the network element by using a first spectrum sharing protocol; acquiring , by the spectrum sharing adaptation system, allocation and transmission authorization of the shared spectrum resource from a spectrum resource manager managing utilization of spectrum resources, wherein the spectrum sharing adaptation system acquires the allocation of the shared spectrum resource by using a second spectrum sharing protocol different from the first spectrum sharing protocol; and performing , by the spectrum sharing adaptation system, adaptation between the first spectrum sharing protocol and the second spectrum sharing protocol characterized in that one of the first spectrum sharing protocol and the second spectrum sharing protocol requires synchronous information exchange and the other one of the first spectrum sharing protocol and the second spectrum sharing protocol requires asynchronous information exchange, said performing the adaptation comprising adapting the synchronous information change to the asynchronous information change by buffering at least one message received over the synchronous information change until it can be transmitted over the asynchronous information change. performing , by a spectrum sharing adaptation system , allocation and transmission authorization of a shared spectrum resource to a network element of a communication network, wherein the shared spectrum resource is on frequencies non-exclusively licensed to the communication network, and wherein the spectrum sharing adaptation system allocates the shared spectrum resource to the network element by using a first spectrum sharing protocol; acquiring , by the spectrum sharing adaptation system, allocation and transmission authorization of the shared spectrum resource from a spectrum resource manager managing utilization of spectrum resources, wherein the spectrum sharing adaptation system acquires the allocation of the shared spectrum resource by using a second spectrum sharing protocol different from the first spectrum sharing protocol; and performing , by the spectrum sharing adaptation system, adaptation between the first spectrum sharing protocol and the second spectrum sharing protocol characterized in that one of the first spectrum sharing protocol and the second spectrum sharing protocol requires synchronous information exchange and the other one of the first spectrum sharing protocol and the second spectrum sharing protocol requires asynchronous information exchange, said performing the adaptation comprising adapting the synchronous information change to the asynchronous information change by buffering at least one message received over the synchronous information change until it can be transmitted over the asynchronous information change.
A stretchable electrical interconnect for connecting two electrical contacts (102A-B), said electrical interconnect arranged boustrophedonically to define rungs between said contacts (102A-B), a plurality of said rungs being substantially parallel with one another, and said plurality of said rungs having substantially the same length and displacement therebetween, wherein a ratio of said length of said plurality of said rungs and said displacement between said plurality of said rungs is at least 10:1, and wherein the electrical interconnect is made from a semiconductor material.
A cover for a handheld electronic device configured to couple with an accessory for the handheld electronic device, the accessory comprising a plurality of projections, and the cover comprising: a slidable arrangement , comprising: a first layer comprising a plurality of receivers ; and at least one second layer slidable relative to the first layer and comprising a plurality of apertures formed corresponding to the receivers of the first layer , wherein the at least one second layer is slidable relative to the first layer so as to provide alignment of the apertures with the corresponding receivers , and wherein the cover is further configured to couple to the accessory such that when the at least one second layer of the slidable arrangement of the cover is transitioned to a receiving position, the apertures of the at least one second layer are aligned with the corresponding receivers so as to allow receiving and engagement of the projections of the accessory with the receivers . a slidable arrangement , comprising: a first layer comprising a plurality of receivers ; and at least one second layer slidable relative to the first layer and comprising a plurality of apertures formed corresponding to the receivers of the first layer , a first layer comprising a plurality of receivers ; and at least one second layer slidable relative to the first layer and comprising a plurality of apertures formed corresponding to the receivers of the first layer , wherein the at least one second layer is slidable relative to the first layer so as to provide alignment of the apertures with the corresponding receivers , and wherein the cover is further configured to couple to the accessory such that when the at least one second layer of the slidable arrangement of the cover is transitioned to a receiving position, the apertures of the at least one second layer are aligned with the corresponding receivers so as to allow receiving and engagement of the projections of the accessory with the receivers .