mhurhangee/patent-ind-claim-en huggingface dataset:
A lithium-ion secondary battery comprising a positive electrode plate, a negative electrode plate, a separator and an electrolyte, the electrolyte comprising a lithium salt and an organic solvent; wherein the positive electrode plate comprises a positive current collector and a positive film, the positive film is provided on at least one surface of the positive current collector and comprises a positive active material, the positive active material comprises one or more selected from a group consisting of Li x Ni a Co b M c O 2 and a doping and/or coating modified compound thereof, M is one or two selected from a group consisting of Mn and Al, 0.95≤x≤1.2, 0<a<1, 0<b<1, 0<c<1; characterized in that the lithium-ion secondary battery satisfies a relationship: 2.13≤(m×C)/(ρ×Cap)≤3.0; wherein m represents a total mass of the electrolyte inside the formated battery with a unit of g; ρ represents a density of the electrolyte with a unit of g/cm 3 ; C represents a concentration of the lithium salt in the electrolyte with a unit of mol/L; Cap represents a rated capacity of the battery with a unit of Ah, which is measured as described in the description. wherein the positive electrode plate comprises a positive current collector and a positive film, the positive film is provided on at least one surface of the positive current collector and comprises a positive active material, the positive active material comprises one or more selected from a group consisting of Li x Ni a Co b M c O 2 and a doping and/or coating modified compound thereof, M is one or two selected from a group consisting of Mn and Al, 0.95≤x≤1.2, 0<a<1, 0<b<1, 0<c<1; characterized in that the lithium-ion secondary battery satisfies a relationship: 2.13≤(m×C)/(ρ×Cap)≤3.0; wherein m represents a total mass of the electrolyte inside the formated battery with a unit of g; ρ represents a density of the electrolyte with a unit of g/cm 3 ; C represents a concentration of the lithium salt in the electrolyte with a unit of mol/L; Cap represents a rated capacity of the battery with a unit of Ah, which is measured as described in the description.
A method of transmitting a plurality of packets in a broadcasting and communication system, the method comprising: dividing each symbol corresponding to each row of a two-dimensional array having a predetermined symbol size, T, as a width into a predetermined number, m, of regions; determining a number of columns in each region based on T and m according to a predetermined rule; sequentially arranging source packets to be transmitted within the symbol size T in the two-dimensional array , starting from a first column of a first row of the two-dimensional array; setting a remaining part of an end region in which last data of a first source packet of the plurality of source packets is allocated in a last row in which the first source packet is arranged, to a predetermined value; arranging a next source packet, starting from a starting point of a region next to the end region, after the first source packet is arranged; constructing a source block by arranging all of the source packets in the two-dimensional array ; Forward Error Correction, FEC,-encoding the source block; transmitting the FEC-encoded source block to a receiving device; and transmitting information indicating a number of the regions in the each symbol to the receiving device, wherein the predetermined rule comprises that each of the first n regions has T/m + 1 columns and each of the remaining m-n regions has T/m columns, where n is a remainder of dividing T by m, n being less than m. dividing each symbol corresponding to each row of a two-dimensional array having a predetermined symbol size, T, as a width into a predetermined number, m, of regions; determining a number of columns in each region based on T and m according to a predetermined rule; sequentially arranging source packets to be transmitted within the symbol size T in the two-dimensional array , starting from a first column of a first row of the two-dimensional array; setting a remaining part of an end region in which last data of a first source packet of the plurality of source packets is allocated in a last row in which the first source packet is arranged, to a predetermined value; arranging a next source packet, starting from a starting point of a region next to the end region, after the first source packet is arranged; constructing a source block by arranging all of the source packets in the two-dimensional array ; Forward Error Correction, FEC,-encoding the source block; transmitting the FEC-encoded source block to a receiving device; and transmitting information indicating a number of the regions in the each symbol to the receiving device, wherein the predetermined rule comprises that each of the first n regions has T/m + 1 columns and each of the remaining m-n regions has T/m columns, where n is a remainder of dividing T by m, n being less than m.
A high-strength surface-coated steel sheet comprising: a base steel sheet having a steel composition by mass of C: 0.01 to 0.20%, Si: 0.01 to 0.50%, Mn: 0.10 to 2.50%, P: 0.005 to 0.050%, B: 0.0005 to 0.010%, Ti: 0.01 to 0.20%, Nb: 0 to 0.10%, Mo: 0 to 0.50%, Cr: 0 to 0.50%, Al: 0.01 to 0.10%, and the balance of Fe and inevitable impurities; and a Zn-Al-Mg-based coating layer disposed on a surface of the base steel sheet, the Zn-Al-Mg-based coating layer having a metal element composition ratio by mass of Al: 1.0 to 22.0%, Mg: 1.3 to 10.0%, Si: 0 to 2.0%, Ti: 0 to 0.10%, B: 0 to 0.05%, Fe: 2.0% or less, and the balance of Zn and inevitable impurities and having cracks of which the total extension per mm 2 is 3.0 to 8.0 mm measured by scanning electron microscopic observation, the high-strength surface-coated steel sheet having a diffusible hydrogen concentration in the base steel sheet of 0.30 ppm or less. a base steel sheet having a steel composition by mass of C: 0.01 to 0.20%, Si: 0.01 to 0.50%, Mn: 0.10 to 2.50%, P: 0.005 to 0.050%, B: 0.0005 to 0.010%, Ti: 0.01 to 0.20%, Nb: 0 to 0.10%, Mo: 0 to 0.50%, Cr: 0 to 0.50%, Al: 0.01 to 0.10%, and the balance of Fe and inevitable impurities; and a Zn-Al-Mg-based coating layer disposed on a surface of the base steel sheet, the Zn-Al-Mg-based coating layer having a metal element composition ratio by mass of Al: 1.0 to 22.0%, Mg: 1.3 to 10.0%, Si: 0 to 2.0%, Ti: 0 to 0.10%, B: 0 to 0.05%, Fe: 2.0% or less, and the balance of Zn and inevitable impurities and having cracks of which the total extension per mm 2 is 3.0 to 8.0 mm measured by scanning electron microscopic observation, the high-strength surface-coated steel sheet having a diffusible hydrogen concentration in the base steel sheet of 0.30 ppm or less.
A contactless temperature sensor for copper wires in movement, comprising a body of the sensor which provides a first cavity wherein a second cavity is provided inside said first cavity, said second cavity having an axial development, characterized in that said first cavity has an axial development also and it is thermally insulated from the environment and sealed at its opposite ends and said second cavity is isolated from said first cavity and in contact with the environment, said second cavity being provided with a sensitive element in the centre made of a material having a high thermal diffusion so that it easily absorb the convective heat flow generated by the said copper wire in movement during the passage of the wire in the sensitive element , a pyrometer being positioned in said sensor body , which extends inside said first cavity and faces said sensitive element with a high thermal diffusion .
A method of manufacturing decorative workpieces selected from the group consisting of kitchen panels, flooring panels, furniture panels, ceiling panels and wall panels; including the steps of: a) rectangular or true shape nesting a set of decorative patterns from a nesting queue into a set of nested decorative patterns; and b) inkjet printing said set of nested decorative patterns on a decoration layer; and c) resin-impregnating the decoration layer and heat-pressing with a core-layer and protective layer for forming a nested decorative workpiece; and wherein said core-layer is made of wood-based materials ; and d) cutting the decorative workpieces out the nested decorative workpiece by a cutting plotter. a) rectangular or true shape nesting a set of decorative patterns from a nesting queue into a set of nested decorative patterns; and b) inkjet printing said set of nested decorative patterns on a decoration layer; and c) resin-impregnating the decoration layer and heat-pressing with a core-layer and protective layer for forming a nested decorative workpiece; and wherein said core-layer is made of wood-based materials ; and d) cutting the decorative workpieces out the nested decorative workpiece by a cutting plotter.
A defoaming agent comprising a polymer, the polymer comprising: a repeating unit represented by the following general formula ; and a repeating unit represented by the following general formula : wherein in the general formula , X 1 is a repeating unit obtainable by polymerization of a first (meth)acryloyl group; Y 1 is a side chain comprising a linear or branched polysiloxane structure, the polysiloxane structure comprising a repeating unit represented by the following general formula and having a polymerization degree of 5 to 300; and Z 1 is a linking group linking the repeating unit X 1 and the side chain Y 1 ; wherein in the general formula , R 1 and R 2 are each independently an organic group having a carbon number of 1 to 18; and wherein in the general formula , X 2 is a repeating unit obtainable by polymerization of a second (meth)acryloyl group; Y 2 is a C 1-30 hydrocarbyl side chain; and Z 2 is a linking group linking the repeating unit X 2 and the side chain Y 2 ; wherein the polymer comprises the repeating unit represented by the general formula in an amount of no less than 70 mass% on the basis of the total mass of all repeating units in the polymer a repeating unit represented by the following general formula ; and a repeating unit represented by the following general formula : wherein in the general formula , X 1 is a repeating unit obtainable by polymerization of a first (meth)acryloyl group; Y 1 is a side chain comprising a linear or branched polysiloxane structure, the polysiloxane structure comprising a repeating unit represented by the following general formula and having a polymerization degree of 5 to 300; and Z 1 is a linking group linking the repeating unit X 1 and the side chain Y 1 ; wherein in the general formula , R 1 and R 2 are each independently an organic group having a carbon number of 1 to 18; and wherein in the general formula , X 2 is a repeating unit obtainable by polymerization of a second (meth)acryloyl group; Y 2 is a C 1-30 hydrocarbyl side chain; and Z 2 is a linking group linking the repeating unit X 2 and the side chain Y 2 ; wherein the polymer comprises the repeating unit represented by the general formula in an amount of no less than 70 mass% on the basis of the total mass of all repeating units in the polymer
A forced airflow drying apparatus comprising: a body including: a pair of air inlets to receive inlet air which is channeled to an upstream side of a filter unit ; a pair of body airflow generators to receive inlet air to generate a first forced airflow; a pair of thermoelectric devices configured to control a temperature of the first forced airflow; and a first outlet , in communication with each body airflow generator , to receive the forced airflow from the body airflow generators and to expel the first forced airflow out of the body ; wherein the forced airflow drying apparatus further comprises: a bar ; a first drive apparatus to movably drive the bar in a vertical direction relative to the body , a second drive apparatus to rotate the bar along a horizontal axis relative to the first body ; and a controller to adjust the first and second driving apparatus (11; 220), wherein the bar comprises a second outlet and a second airflow generator to generate a second forced airflow, wherein the second forced airflow is expelled through the second outlet . a pair of air inlets to receive inlet air which is channeled to an upstream side of a filter unit ; a pair of body airflow generators to receive inlet air to generate a first forced airflow; a pair of thermoelectric devices configured to control a temperature of the first forced airflow; and a first outlet , in communication with each body airflow generator , to receive the forced airflow from the body airflow generators and to expel the first forced airflow out of the body ; wherein the forced airflow drying apparatus further comprises: a bar ; a first drive apparatus to movably drive the bar in a vertical direction relative to the body , a second drive apparatus to rotate the bar along a horizontal axis relative to the first body ; and a controller to adjust the first and second driving apparatus (11; 220), wherein the bar comprises a second outlet and a second airflow generator to generate a second forced airflow, wherein the second forced airflow is expelled through the second outlet . a bar ; a first drive apparatus to movably drive the bar in a vertical direction relative to the body , a second drive apparatus to rotate the bar along a horizontal axis relative to the first body ; and a controller to adjust the first and second driving apparatus (11; 220), wherein the bar comprises a second outlet and a second airflow generator to generate a second forced airflow, wherein the second forced airflow is expelled through the second outlet .
A method comprising: storing, by a computing device , a first list of identification data and at least one corresponding action to perform on encrypted communication flows associated with corresponding identification data; receiving, by the computing device, one or more first packets initiating a first encrypted communication flow; determining (1-4, 1-5b), by the computing device and based on first identification data corresponding to the one or more first packets, that the first encrypted communication flow is indicated in the first list; receiving, by the computing device, one or more second packets; based on determining that the one or more second packets are part of the first encrypted communication flow initiated by the one or more first packets, and based on determining (1-5b) that the first encrypted communication flow is indicated in the first list, decrypting the one or more second packets; performing a corresponding action associated with the first encrypted communication flow on the decrypted one or more second packets; re-encrypting, after performing the corresponding action, at least one of the decrypted one or more second packets; and transmitting the re-encrypted at least one of the one more second packets to its intended destination. storing, by a computing device , a first list of identification data and at least one corresponding action to perform on encrypted communication flows associated with corresponding identification data; receiving, by the computing device, one or more first packets initiating a first encrypted communication flow; determining (1-4, 1-5b), by the computing device and based on first identification data corresponding to the one or more first packets, that the first encrypted communication flow is indicated in the first list; receiving, by the computing device, one or more second packets; based on determining that the one or more second packets are part of the first encrypted communication flow initiated by the one or more first packets, and based on determining (1-5b) that the first encrypted communication flow is indicated in the first list, decrypting the one or more second packets; performing a corresponding action associated with the first encrypted communication flow on the decrypted one or more second packets; re-encrypting, after performing the corresponding action, at least one of the decrypted one or more second packets; and transmitting the re-encrypted at least one of the one more second packets to its intended destination.
A framework for installing and supporting a blast damper to a wall of a building, the framework comprising: - a frame forming a periphery of the framework and to which frame components of the blast damper are arranged to be installed and supported; and - a frame flow channel through the framework , the frame flow channel being defined by the frame , characterized in that the frame comprises at least two frame parts mechanically attached to each other with at least one mechanical joint for providing the frame , and that the mechanical joint further comprises one or more clamping elements for clamping the frame parts against each other; and the one or more clamping elements comprise a clamping tab comprising a connection part having one or more clamp mortises for receiving the one or more tenons and a clamping part extending in an oblique angle from the connection part . - a frame forming a periphery of the framework and to which frame components of the blast damper are arranged to be installed and supported; and - a frame flow channel through the framework , the frame flow channel being defined by the frame ,
Use of microcapsules in a laundry composition to improve the hand of a fabric, wherein the microcapsules have a microcapsule wall and the microcapsule wall comprises protein polymers, polysaccharide polymers, or combinations thereof.
An apparatus to provide input current to a motor winding (L2) of a respective motor , the apparatus comprising: a TRIAC TRIode for Alternating Current to control the input current to the motor winding; a control PTC Positive Temperature Coefficient thermistor , the control PTC thermistor coupled to a gate of the TRIAC to control a magnitude of the input current passing through the TRIAC to the motor winding; a start PTC thermistor disposed in series with the control PTC thermistor, the start PTC thermistor in thermal communication with the control PTC thermistor, heat generated by the start PTC thermistor flowing to the control PTC thermistor, the flowing heat controlling a temperature of the control PTC thermistor, the temperature of the control PTC thermistor controlling the magnitude of the input current passing from a first winding L1 through the start PTC thermistor and then through the TRIAC to the motor winding. a TRIAC TRIode for Alternating Current to control the input current to the motor winding; a control PTC Positive Temperature Coefficient thermistor , the control PTC thermistor coupled to a gate of the TRIAC to control a magnitude of the input current passing through the TRIAC to the motor winding; a start PTC thermistor disposed in series with the control PTC thermistor, the start PTC thermistor in thermal communication with the control PTC thermistor, heat generated by the start PTC thermistor flowing to the control PTC thermistor, the flowing heat controlling a temperature of the control PTC thermistor, the temperature of the control PTC thermistor controlling the magnitude of the input current passing from a first winding L1 through the start PTC thermistor and then through the TRIAC to the motor winding.
An aircraft having an airframe , a vehicle passenger cabin , a load-bearing wall inside the passenger cabin , said load-bearing wall carrying a load from said airframe , and a sliding closet movable relative to said load-bearing wall between an open position and a closed position , said sliding closet comprising: an exterior wall , wherein the exterior wall faces into said passenger cabin ; a first wall and a second wall perpendicular to the exterior wall ; a number of openings parallel to the exterior wall , said openings being accessible in the open position and not accessible in the closed position ; a movement system ; and a number of cavities formed by the exterior wall , the first wall , the second wall , and the number of openings , said cavities facing an entry aisle of said aircraft when said sliding closet is in open position, wherein either movement system includes number of channels and load-bearing wall includes number of rails where number of channels is configured to connect to number of rails such that sliding closet may move along number of rails , or movement system includes number of rails and load-bearing wall includes number of channels where number of rails is configured to connect to number of channels such that sliding closet may move along number of channels . an exterior wall , wherein the exterior wall faces into said passenger cabin ; a first wall and a second wall perpendicular to the exterior wall ; a number of openings parallel to the exterior wall , said openings being accessible in the open position and not accessible in the closed position ; a movement system ; and a number of cavities formed by the exterior wall , the first wall , the second wall , and the number of openings , said cavities facing an entry aisle of said aircraft when said sliding closet is in open position,
A satellite deorbiting device including an aerobraking sail , the deorbiting device including a gravity gradient device for holding the attitude of the satellite, the gravity gradient device including at least one mast carrying the aerobraking sail and a first end of which is integral with the satellite and the second end of which is provided with a mass , so that said mast orients itself in a direction opposite to the direction (T) of the planet around which the satellite orbits and the aerobraking sail including at least two panels made by means of membranes deploying with the mast and extending along the mast.
Combination of a helmet , a headset device and a replaceable adaptor for attaching the headset device to the helmet , wherein the adaptor comprises : a. when the adaptor is mounted at the helmet in its operable position, a lower portion at a lower level , wherein the lower portion and the lower level are located deeper within the helmet , relative to its external surface, having a shape conforming to the shape of a helmet cavity at the helmet , the helmet cavity being a cavity in an exterior rigid plastic layer of the helmet ; and b. an adaptor cavity , conforming to the shape of the headset device , which is adapted to accommodate said headset device ; wherein when a need arises to attach another headset device having a different shape or dimensions to a same helmet , or when a need arises to replace the helmet by another helmet having a cavity of different shape or dimensions, said adaptor is replaced with another adaptor having an adaptor cavity capable of accommodating said other headset device, or having lower portion shape substantially conforming to the shape of the cavity of said other helmet, respectively, characterised in that the adaptor comprises an opening , through which an electronic connector of the helmet enters to mate with a respective electronic connector of the headset . a. when the adaptor is mounted at the helmet in its operable position, a lower portion at a lower level , wherein the lower portion and the lower level are located deeper within the helmet , relative to its external surface, having a shape conforming to the shape of a helmet cavity at the helmet , the helmet cavity being a cavity in an exterior rigid plastic layer of the helmet ; and b. an adaptor cavity , conforming to the shape of the headset device , which is adapted to accommodate said headset device ; wherein when a need arises to attach another headset device having a different shape or dimensions to a same helmet , or when a need arises to replace the helmet by another helmet having a cavity of different shape or dimensions, said adaptor is replaced with another adaptor having an adaptor cavity capable of accommodating said other headset device, or having lower portion shape substantially conforming to the shape of the cavity of said other helmet, respectively,