mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary battery which comprises an electrode assembly having an electrode tab extended from an electrode current collector, wherein the electrode tab is provided with an insulation coating layer containing an inorganic filler and a binder, the binder has an electrolyte uptake more than 0% and less than 50%, and the electrolyte uptake is determined by the method including the steps of: preparing an electrolyte including an organic solvent containing a mixture of ethylene carbonate, propylene carbonate and diethyl carbonate, and a lithium salt; molding the binder into a film shape, cutting the film into a predetermined size, weighing the binder before dipping, dipping the film in the electrolyte at room temperature for 1 hour and removing the film from the electrolyte, and weighing the binder after dipping; and calculating the electrolyte uptake by using the following Formula 1: Weight after dipping − Weight before dipping Weight before dipping × 100 % wherein the electrode tab is provided with an insulation coating layer containing an inorganic filler and a binder, the binder has an electrolyte uptake more than 0% and less than 50%, and the electrolyte uptake is determined by the method including the steps of: preparing an electrolyte including an organic solvent containing a mixture of ethylene carbonate, propylene carbonate and diethyl carbonate, and a lithium salt; molding the binder into a film shape, cutting the film into a predetermined size, weighing the binder before dipping, dipping the film in the electrolyte at room temperature for 1 hour and removing the film from the electrolyte, and weighing the binder after dipping; and calculating the electrolyte uptake by using the following Formula 1: Weight after dipping − Weight before dipping Weight before dipping × 100 % preparing an electrolyte including an organic solvent containing a mixture of ethylene carbonate, propylene carbonate and diethyl carbonate, and a lithium salt; molding the binder into a film shape, cutting the film into a predetermined size, weighing the binder before dipping, dipping the film in the electrolyte at room temperature for 1 hour and removing the film from the electrolyte, and weighing the binder after dipping; and calculating the electrolyte uptake by using the following Formula 1: Weight after dipping − Weight before dipping Weight before dipping × 100 %
Apparatus for management of communications resources of a moving platform comprising an on-board communications system configured to effect wireless data communication between said moving platform and another node, said communications resources comprising a plurality of wireless communications links and a plurality of antennas associated therewith, the apparatus comprising an antenna analysis and selection module residing with said communications system and configured to: - receive, during a mission from one or more systems/subsystems and/or functions of said moving platform, attribute data representative of said emissions control criteria, said attribute data comprising (i) location data representative of a specified emissions control region, and (ii) position and/or attitude and/or velocity data representative of an adversary node defining an emissions control region; - determine, using said attribute data and based on said emissions control criteria, suitability of one or more on-board antennas and/or portions of aperture antenna for supporting said communications requirement; - for each of a plurality of antennas/portions of aperture antenna determined to be suitable for supporting said communications requirement based on said emissions control criteria, determine a quality metric, said quality metric being indicative of a respective performance criterion; and - select one or more of said suitable antennas/portion of aperture antenna having a highest performance criterion, for facilitating said communications requirement. - receive, during a mission from one or more systems/subsystems and/or functions of said moving platform, attribute data representative of said emissions control criteria, said attribute data comprising (i) location data representative of a specified emissions control region, and (ii) position and/or attitude and/or velocity data representative of an adversary node defining an emissions control region; - determine, using said attribute data and based on said emissions control criteria, suitability of one or more on-board antennas and/or portions of aperture antenna for supporting said communications requirement; - for each of a plurality of antennas/portions of aperture antenna determined to be suitable for supporting said communications requirement based on said emissions control criteria, determine a quality metric, said quality metric being indicative of a respective performance criterion; and - select one or more of said suitable antennas/portion of aperture antenna having a highest performance criterion, for facilitating said communications requirement.
A treatment system for treating workpieces , in particular for treating vehicle bodies , having a) a conveying system , which comprises a plurality of free-moving transport carriages with which at least one workpiece in each case can be conveyed along a conveying route (S F ) in variable conveying directions (R F ); wherein b) each free-moving transport carriage comprises in each case: ba) a chassis , which defines a main axis and main alignment (A H ) of the free-moving transport carriage , a fastening device for at least one workpiece and a connecting device , which couples the chassis to the fastening device ; and bb) a control device , which is designed to control the chassis along the conveying route (S F ) depending on position information which is provided by at least one position information transmitter ; c) a movement space is present along the conveying route (S F ), which movement space is connected to a workpiece conveying space via a connecting passage , wherein the chassis can be moved in the movement space so that the fastening device is also moved in the workpiece conveying space and the connecting device extends through the connecting passage , characterized in that d) in addition to the control device of the free-moving transport carriage , a mechanical and/or sensor-dependent track assistance device is provided, which is designed to actively and/or passively adapt the main alignment (A H ) of the free-moving transport carriage and the conveying direction (R F ) to one another on the basis of at least one parameter which is dependent on the connecting passage . a) a conveying system , which comprises a plurality of free-moving transport carriages with which at least one workpiece in each case can be conveyed along a conveying route (S F ) in variable conveying directions (R F ); b) each free-moving transport carriage comprises in each case: ba) a chassis , which defines a main axis and main alignment (A H ) of the free-moving transport carriage , a fastening device for at least one workpiece and a connecting device , which couples the chassis to the fastening device ; and bb) a control device , which is designed to control the chassis along the conveying route (S F ) depending on position information which is provided by at least one position information transmitter ; ba) a chassis , which defines a main axis and main alignment (A H ) of the free-moving transport carriage , a fastening device for at least one workpiece and a connecting device , which couples the chassis to the fastening device ; and bb) a control device , which is designed to control the chassis along the conveying route (S F ) depending on position information which is provided by at least one position information transmitter ; c) a movement space is present along the conveying route (S F ), which movement space is connected to a workpiece conveying space via a connecting passage , wherein the chassis can be moved in the movement space so that the fastening device is also moved in the workpiece conveying space and the connecting device extends through the connecting passage ,
A computing system , comprising: a processor to execute software; memory coupled to the processor, the memory comprising non-volatile random access memory byte addressable by the processor, the non-volatile random access memory partitioned into a first partition and a second partition that is exposed to the software as a mass storage; and, a memory controller coupled to the non-volatile random access memory to perform a memory access operation to access the non-volatile random access memory, characterized in that the memory controller is configured to perform the memory access operation to access the non-volatile random access memory in response to a request from the software, and in that the software comprises a kernel level driver to translate a storage address for a memory access operation into the second partition into a non-volatile random access memory address. a processor to execute software; memory coupled to the processor, the memory comprising non-volatile random access memory byte addressable by the processor, the non-volatile random access memory partitioned into a first partition and a second partition that is exposed to the software as a mass storage; and, a memory controller coupled to the non-volatile random access memory to perform a memory access operation to access the non-volatile random access memory, characterized in that the memory controller is configured to perform the memory access operation to access the non-volatile random access memory in response to a request from the software, and in that the software comprises a kernel level driver to translate a storage address for a memory access operation into the second partition into a non-volatile random access memory address.
A time synchronization method, wherein a first network device is connected to a radio equipment control, REC, a second network device is connected to a radio equipment, RE, the first network device keeps system time synchronization with the second network device, and the method comprises: receiving , by the first network device, a service frame sent by the REC, and recording, according to a system time of the first network device, a first time stamp T1 at which the service frame is received, wherein the service frame carries a system clock of the REC; and sending , by the first network device, a packet to the second network device, wherein the packet comprises the service frame and the first time stamp, and the packet is used to notify the system clock of the REC and the first time stamp to the second network device; wherein the first network device keeps system clock synchronization with the second network device, and after the receiving , by the first network device, a service frame sent by the REC, the method further comprises: extracting, by the first network device, the system clock of the REC from the service frame; and calculating, by the first network device, a frequency offset according to a system clock of the first network device and the system clock of the REC, wherein correspondingly, the packet sent by the first network device to the second network device comprises the service frame, the first time stamp, and the frequency offset. receiving , by the first network device, a service frame sent by the REC, and recording, according to a system time of the first network device, a first time stamp T1 at which the service frame is received, wherein the service frame carries a system clock of the REC; and sending , by the first network device, a packet to the second network device, wherein the packet comprises the service frame and the first time stamp, and the packet is used to notify the system clock of the REC and the first time stamp to the second network device; wherein the first network device keeps system clock synchronization with the second network device, and after the receiving , by the first network device, a service frame sent by the REC, the method further comprises: extracting, by the first network device, the system clock of the REC from the service frame; and calculating, by the first network device, a frequency offset according to a system clock of the first network device and the system clock of the REC, wherein extracting, by the first network device, the system clock of the REC from the service frame; and calculating, by the first network device, a frequency offset according to a system clock of the first network device and the system clock of the REC, wherein correspondingly, the packet sent by the first network device to the second network device comprises the service frame, the first time stamp, and the frequency offset.
A method comprising: receiving a message, at a user equipment , to preserve physical uplink control channel resources when a time alignment timer expires, and causing the physical uplink control channel resource allocation to be kept stored at the user equipment upon expiration of the time alignment timer. receiving a message, at a user equipment , to preserve physical uplink control channel resources when a time alignment timer expires, and causing the physical uplink control channel resource allocation to be kept stored at the user equipment upon expiration of the time alignment timer.
A tissue capture anchor for attaching tissue to bone, the anchor comprising: an anchor body comprising a proximal end and at least two expandable tines distally extending from the proximal end and having a non-threaded inner surface; and a spreader configured to engage with the anchor body at the non-threaded inner surface, the spreader comprising: a distal end comprising a suture loop ; a central hole adapted to receive the proximal end of the anchor body ; and an angled portion , interior to the spreader , configured to force the expandable tines outward as the spreader is moved relative to the anchor body , wherein the suture loop is configured to receive tissue. an anchor body comprising a proximal end and at least two expandable tines distally extending from the proximal end and having a non-threaded inner surface; and a spreader configured to engage with the anchor body at the non-threaded inner surface, the spreader comprising: a distal end comprising a suture loop ; a central hole adapted to receive the proximal end of the anchor body ; and an angled portion , interior to the spreader , configured to force the expandable tines outward as the spreader is moved relative to the anchor body , wherein the suture loop is configured to receive tissue. a distal end comprising a suture loop ; a central hole adapted to receive the proximal end of the anchor body ; and an angled portion , interior to the spreader , configured to force the expandable tines outward as the spreader is moved relative to the anchor body , wherein the suture loop is configured to receive tissue.
A spectacle lens provided in a form suitable for simultaneous lamination of a pressure sensitive adhesive layer and of a thermoplastic film , the said spectacle lens comprising a convex and a concave optical surface facing each other, wherein the convex and/or the concave optical surface(s) is (are) a receiving surface(s) intended to receive the pressure sensitive adhesive on which the thermoplastic film is intended to be arranged and wherein the said receiving surface has an arithmetic average profile roughness, R a , greater or equal to 0.01 μm and less or equal to 0.3 μm and/or wherein the said receiving surface has a profile roughness root mean square slope, R dq , greater or equal to 0.2° and less or equal to 1.2°.
Alkali metal-chalcogen cell, comprising - an anode , - a cathode and - a separator arranged between the anode and the cathode, where the anode comprises an alkali metal and the cathode comprises a chalcogen, characterized in that the separator has a polymer-ionophore component which comprises a polymeric matrix material and an alkali metal ionophores , where the alkali metal ionophores are chemically and/or physically bound to the matrix material and/or in the matrix material . - an anode , - a cathode and - a separator arranged between the anode and the cathode, where the anode comprises an alkali metal and the cathode comprises a chalcogen, characterized in that the separator has a polymer-ionophore component which comprises a polymeric matrix material and an alkali metal ionophores , where the alkali metal ionophores are chemically and/or physically bound to the matrix material and/or in the matrix material .
Machining unit for a machining device , in particular a wood machining device, having a unit body with several toolholders , each of which accommodates a machining tool for performing a machining operation on a workpiece , and a connecting device by means of which the unit body can be arranged on a drive device or a corresponding connection of the machining device , wherein the unit body has a swivel device by means of which a swivel movement of at least the toolholders can be carried out around a swivel axis relative to the connecting device , and furthermore the swivel axis of the swivel device is aligned at a different angle to the central axis of the connecting device or is axially offset to the central axis of the connecting device , characterised in that at least three toolholders are provided, the respective longitudinal central axes of which are not aligned parallel to each other, wherein at least one of the toolholders is aligned with its longitudinal central axis at an angle of greater than +/-0 ° and less than +/-90 ° to a central axis of the connecting device or a swivel axis of the unit body , and each toolholder forms a machining output in the respective spatial direction.
An extruded polymeric foam insulation obtainable from: a foamable polymeric material comprising: polystyrene; a blowing agent composition comprising carbon dioxide and at least one of hydrofluoroolefins and hydrofluorocarbons; and a processing aid comprising synthetic beeswax, and wherein the extruded polymeric foam insulation has an R-value from 4 to 5 per 2.54 cm (1 inch). a foamable polymeric material comprising: polystyrene; a blowing agent composition comprising carbon dioxide and at least one of hydrofluoroolefins and hydrofluorocarbons; and a processing aid comprising synthetic beeswax, and polystyrene; a blowing agent composition comprising carbon dioxide and at least one of hydrofluoroolefins and hydrofluorocarbons; and a processing aid comprising synthetic beeswax, and wherein the extruded polymeric foam insulation has an R-value from 4 to 5 per 2.54 cm (1 inch).
An oxide semiconductor film comprising: a p-type dopant in the oxide semiconductor film, wherein the p-type dopant includes one or more elements selected from Mg, H, Li, Na, K, Rb, Cs, Fr, Be, Ca, Sr, Ba, Ra, Mn, Fe, Ni, Pd, Cu, Ag, Au, Zn, Cd, Hg, Pb, N, and P; a p-type carrier concentration of the oxide semiconductor film being 1×10 15 /cm 3 or more; and a hole mobility of the oxide semiconductor film being 1 cm 2 /Vs or more; the oxide semiconductor film being a mixed crystal of an oxide of a metal of Group 9 of the periodic table and an oxide of a metal of Group 13 of the periodic table, and the oxide semiconductor film having a p-type electric conductivity. a p-type dopant in the oxide semiconductor film, wherein the p-type dopant includes one or more elements selected from Mg, H, Li, Na, K, Rb, Cs, Fr, Be, Ca, Sr, Ba, Ra, Mn, Fe, Ni, Pd, Cu, Ag, Au, Zn, Cd, Hg, Pb, N, and P; a p-type carrier concentration of the oxide semiconductor film being 1×10 15 /cm 3 or more; and a hole mobility of the oxide semiconductor film being 1 cm 2 /Vs or more; the oxide semiconductor film being a mixed crystal of an oxide of a metal of Group 9 of the periodic table and an oxide of a metal of Group 13 of the periodic table, and the oxide semiconductor film having a p-type electric conductivity.
A laser assisted remote phosphor system , comprising: a light source ; a wavelength converter ; and a collimating metalens comprising a first side and a second side; wherein: the light source is configured to emit primary light rays , at least a portion of said primary light rays being incident on said wavelength converter ; the wavelength converter is configured to convert at least a portion of the primary light rays incident thereon to secondary light rays ; the collimating metalens is positioned proximate to the wavelength converter such that at least a portion of the secondary light rays is incident on the first side of the collimating metalens ; said collimating metalens is configured to collimate said secondary light rays , so as to produce collimated secondary light rays in a region down field ("DFR") of the collimating metalens , relative to said wavelength converter ; and said collimating metalens is a hybrid multiregion metalens comprising a first region and a second region ; the first region extends radially around an optical axis of said collimating metalens , and comprises an array of first unit cells containing subwavelength spaced nanostructures , such that said first region functions as a subwavelength high contrast grating (SWHCG); and the second region extends radially around the first region and comprises an array of second unit cells , wherein the array of second unit cells comprises a near periodic annular arrangement of nanostructures , such that the second region approximates the functionality of a locally periodic radial diffraction grating. a light source ; a wavelength converter ; and a collimating metalens comprising a first side and a second side; the light source is configured to emit primary light rays , at least a portion of said primary light rays being incident on said wavelength converter ; the wavelength converter is configured to convert at least a portion of the primary light rays incident thereon to secondary light rays ; the collimating metalens is positioned proximate to the wavelength converter such that at least a portion of the secondary light rays is incident on the first side of the collimating metalens ; said collimating metalens is configured to collimate said secondary light rays , so as to produce collimated secondary light rays in a region down field ("DFR") of the collimating metalens , relative to said wavelength converter ; and said collimating metalens is a hybrid multiregion metalens comprising a first region and a second region ;
A pharmaceutical composition for topical application to the skin of an individual comprising: a corticosteroid selected from the group consisting of halobetasol propionate, clobetasol propionate, betamethasone dipropionate, diflorasone diacetate at a concentration of less than 0.05% (w/w) and fluocinonide at a concentration of less than 0.1% (w/w); and a liquid oil component comprising a dicarboxylic acid ester comprising diethyl sebacate, diisopropyl adipate, or dibutyl sebacate wherein the concentration of the liquid oil component is between 1.5 and 3 times that required to completely solubilize the amount of the corticosteroid in the composition at a temperature of 22°C ± 2°C, and wherein the concentration of the dicarboxylic acid ester in the liquid oil component is at least 10% of the concentration of the liquid oil component in the composition. a corticosteroid selected from the group consisting of halobetasol propionate, clobetasol propionate, betamethasone dipropionate, diflorasone diacetate at a concentration of less than 0.05% (w/w) and fluocinonide at a concentration of less than 0.1% (w/w); and a liquid oil component comprising a dicarboxylic acid ester comprising diethyl sebacate, diisopropyl adipate, or dibutyl sebacate wherein the concentration of the liquid oil component is between 1.5 and 3 times that required to completely solubilize the amount of the corticosteroid in the composition at a temperature of 22°C ± 2°C, and wherein the concentration of the dicarboxylic acid ester in the liquid oil component is at least 10% of the concentration of the liquid oil component in the composition.