mhurhangee/patent-ind-claim-en huggingface dataset:
A chargeable battery state detection apparatus configured to detect a state of a chargeable battery , the apparatus comprising: one or a plurality of processors ; and one or a plurality of memories communicatively connected to the one or the plurality of processors , wherein the one or the plurality of processors read out a group of instructions stored in the one or the plurality of memories , and execute a detection process for detecting a voltage and a current of the chargeable battery based on signals output from a voltage detecting unit and a current detecting unit , a storage process for storing a plurality of voltage values (V(n)) detected at different times by the detection process after charge and discharge of the chargeable battery is stopped, a fitting process for fitting, with respect to the plurality of voltage values (V(n)) stored by the storage process, by adjusting coefficients (A1~A9) of a predetermined function (F(T)), a calculation process for calculating an open circuit voltage (OCV) based on the function (F(T)), the coefficients (A1~A9) of the function (F(T)) being adjusted by the fitting process, wherein the apparatus is characterised in that the one or the plurality of processors execute a discard process for discarding at least a part of the plurality of voltage values (V(n)) stored by the storage process when a current value (A) or a voltage value (V) detected by the detection process fluctuates by a predetermined threshold value (Th) or greater. one or a plurality of processors ; and one or a plurality of memories communicatively connected to the one or the plurality of processors , wherein the one or the plurality of processors read out a group of instructions stored in the one or the plurality of memories , and execute a detection process for detecting a voltage and a current of the chargeable battery based on signals output from a voltage detecting unit and a current detecting unit , a storage process for storing a plurality of voltage values (V(n)) detected at different times by the detection process after charge and discharge of the chargeable battery is stopped, a fitting process for fitting, with respect to the plurality of voltage values (V(n)) stored by the storage process, by adjusting coefficients (A1~A9) of a predetermined function (F(T)), a calculation process for calculating an open circuit voltage (OCV) based on the function (F(T)), the coefficients (A1~A9) of the function (F(T)) being adjusted by the fitting process, wherein the apparatus is characterised in that the one or the plurality of processors execute a discard process for discarding at least a part of the plurality of voltage values (V(n)) stored by the storage process when a current value (A) or a voltage value (V) detected by the detection process fluctuates by a predetermined threshold value (Th) or greater.
Glass or glass ceramic plate with a first upper surface lying in the xy plane in an orthogonal xyz coordinate system and a second upper surface , with a circumferential lower edge and a circumferential upper edge with at least one first edge surface and at least one second edge surface , wherein the edge surfaces together form an angle γ, and with a curved corner surface connecting both edge surfaces of a corner E with a radius of curvature R, with a contour line K E and with a corner angle W, wherein the upper surface has a facet with a facet surface on at least one of the two edge surfaces , whereby a remaining edge surface with a thickness D R and a contour line K R is formed on the edge surface , wherein the contour line K R has a distance z R from the lower edge , characterised in that the plate has an edge index I N = W N V Y at the corner E and the adjacent remaining edge surface with W N = W γ and V Y ≠ 0, wherein V y in mm is the distance between the contour lines K R and K E in the y-direction and I N in mm -1 is: 0.1 ≤ I N ≤ 1.5 . with a first upper surface lying in the xy plane in an orthogonal xyz coordinate system and a second upper surface , with a circumferential lower edge and a circumferential upper edge with at least one first edge surface and at least one second edge surface , wherein the edge surfaces together form an angle γ, and with a curved corner surface connecting both edge surfaces of a corner E with a radius of curvature R, with a contour line K E and with a corner angle W, wherein the upper surface has a facet with a facet surface on at least one of the two edge surfaces , whereby a remaining edge surface with a thickness D R and a contour line K R is formed on the edge surface , wherein the contour line K R has a distance z R from the lower edge , characterised in that the plate has an edge index I N = W N V Y at the corner E and the adjacent remaining edge surface with W N = W γ and V Y ≠ 0, wherein V y in mm is the distance between the contour lines K R and K E in the y-direction and I N in mm -1 is: 0.1 ≤ I N ≤ 1.5 .
A method for sending short training sequence, comprising: determining a short training sequence ; and sending a short training sequence on a target channel , wherein a bandwidth of the target channel is 320 MHz; wherein the short training sequence with periodicity of 0.8 μs is expressed by using the following formula: S − 2.032 : 16 : 2032 = c 1 × M , 1 , − M , 0 , c 2 × − M , 1 , − M , a 1 , c 3 × M , 1 , − M , 0 , c 4 × − M , 1 , − M , 0 , c 5 × M , 1 , − M , 0 , c 6 × − M , 1 , − M , a 2 , c 7 × M , 1 , − M , 0 , c 8 × − M , 1 , − M × 1 + j / 2 ; wherein, a value of a i is {-1, 0, 1}, i = 1, 2; a value of c j is {-1, 1}, j = 1, 2, 3, 4, 5, 6, 7, 8; M={-1,-1,-1,1,1,1,-1,1,1,1,-1,1,1,-1,1}. determining a short training sequence ; and sending a short training sequence on a target channel , wherein a bandwidth of the target channel is 320 MHz; wherein the short training sequence with periodicity of 0.8 μs is expressed by using the following formula: S − 2.032 : 16 : 2032 = c 1 × M , 1 , − M , 0 , c 2 × − M , 1 , − M , a 1 , c 3 × M , 1 , − M , 0 , c 4 × − M , 1 , − M , 0 , c 5 × M , 1 , − M , 0 , c 6 × − M , 1 , − M , a 2 , c 7 × M , 1 , − M , 0 , c 8 × − M , 1 , − M × 1 + j / 2 ; wherein, a value of a i is {-1, 0, 1}, i = 1, 2; a value of c j is {-1, 1}, j = 1, 2, 3, 4, 5, 6, 7, 8; M={-1,-1,-1,1,1,1,-1,1,1,1,-1,1,1,-1,1}.
Food processing system comprising: - one or a plurality of food containers each comprising a raw food product; - one or a plurality of dispensing and reconstituting chambers each linked to at least one of the food containers , the dispensing and reconstituting chambers receiving the raw food product from the food containers , processing it by hydration and/or texturization, and selectively depositing it in one or a plurality of shapes and/or layers ; characterized in that the food processing system further comprises cooking means configured to selectively heat or not parts of the deposited shapes and/or layers . - one or a plurality of food containers each comprising a raw food product; - one or a plurality of dispensing and reconstituting chambers each linked to at least one of the food containers , the dispensing and reconstituting chambers receiving the raw food product from the food containers , processing it by hydration and/or texturization, and selectively depositing it in one or a plurality of shapes and/or layers ;
An intake system having an air/fuel mixer for a multicylinder internal combustion engine with natural gas or LPG, or for an engine of the "dual-fuel" type, including an intake manifold , at least one electronic fuel injector and at least one intake channel for the air/fuel mixture into the combustion chamber of each cylinder of the engine, also including a mixer tube extending the injector , positioned transversely relative to the intake channel and having a plurality of orifices for the discharge of the fuel and the mixing thereof with the flow of combustion air in said intake channel , characterized in that the intake system includes a plate belonging to the intake manifold , serving as the seal between the latter and the cylinder head of the engine, said plate comprising two intake channels for each cylinder of the engine and being machined so as to allow the insertion therein and the fastening of the injector and of two mixer tubes in communication with the injector , at an angle such that a mixer tube is positioned in each of the two intake channels essentially diametrically.
A method for controlling a pneumatic starter air valve of a gas turbine engine , the method comprising: controlling the starter air valve in a first mode of operation by actuating a first solenoid of the starter air valve with a steady-state input signal; allowing passage of the steady-state input signal to a second solenoid of the starter air valve to actuate the second solenoid and enable pressure regulation of the starter air valve ; controlling the starter air valve in a second mode of operation by actuating the first solenoid with a pulse-width modulation input signal; and preventing passage of the pulse-width modulation input signal to the second solenoid to disable the pressure regulation in the second mode of operation. controlling the starter air valve in a first mode of operation by actuating a first solenoid of the starter air valve with a steady-state input signal; allowing passage of the steady-state input signal to a second solenoid of the starter air valve to actuate the second solenoid and enable pressure regulation of the starter air valve ; controlling the starter air valve in a second mode of operation by actuating the first solenoid with a pulse-width modulation input signal; and preventing passage of the pulse-width modulation input signal to the second solenoid to disable the pressure regulation in the second mode of operation.
A seat for a car for public transportation vehicle passengers, in particular railway vehicles, including at least one lateral hip wedge element , characterized in that the lateral element is movable between a first hip wedging position (A) and a second gripping position (B), and includes a gripping part accessible, at least in the second position (B), to a standing person to allow this person to hold on when moving in the car.
Fibre Reinforced Polymeric (FRP) composite comprising a dry preform laminated with a resin mix comprising a matrix resin, hardener and electrically conductive fillers selected from: conductive carbon black, silver-coated hollow glass microspheres, and carbon nanotubes, wherein the amount of the electrically conductive fillers is from 1% to 30% by weight in the matrix resin, and wherein the FRP composite has a density ranging from about 0.9 g/cc to about 2.0 g/cc, a surface electrical resistivity ranging from about 10 9 Ω/sq. to about 10 -1 Ω/sq., an ambient temperature storage modulus ranging from about 4 GPa to about 15 GPa, an Inter Lamellar Shear Strength (ILSS) ranging from about 15MPa to about 50 MPa, and is capable of withstanding a temperature of up to 170°C. wherein the amount of the electrically conductive fillers is from 1% to 30% by weight in the matrix resin, and wherein the FRP composite has a density ranging from about 0.9 g/cc to about 2.0 g/cc, a surface electrical resistivity ranging from about 10 9 Ω/sq. to about 10 -1 Ω/sq., an ambient temperature storage modulus ranging from about 4 GPa to about 15 GPa, an Inter Lamellar Shear Strength (ILSS) ranging from about 15MPa to about 50 MPa, and is capable of withstanding a temperature of up to 170°C.
Cosmetic or dermatological aerosol gel comprising water and 0.05 to 5% by weight acrylic acid/VP crosspolymer, based on the total mass of the gel without propellant, and 5 to 50% by weight dimethyl ether as propellant, based on the total mass of the aerosol gel including propellant, characterized in that no other propellants and/or thickeners are present and no other styling polymers are present.
A floor panel assembly comprising sheet-shaped floor panels , which floor panels are provided with a plurality of edges , a lower side and an upper side, whereby the floor panels are intended to be joined by means of joining members , each floor panel being provided on at least a first edge with a first joining member and, on a second edge , with a second joining member , the first and second joining members of two panels being adapted to be joined by a movement of the two panels with their first and second edges towards to each other such that in the joined position the panels meet each other near their upper side along a seam, the first and second joining members locking the panels at the adjacent edges at least in a direction perpendicular to the upper side and in a direction parallel to the upper side but perpendicular to the adjacent first and second edges in their joined position, the first and second joining members being provided with at least one deformable locking element which is deformable, during said joining, from a first position allowing the first and second joining members to be joined, to a second position in which it locks the first and second joining members to each other, said locking element being provided with at least two hinges and in the joined position, a first end of the locking element is fixed to one of said first and second joining members and the second end is in engagement with the other one of said first and second joining members , wherein the first and second joining members are configured as a male and female vertical joining member, the locking element being attached to the female vertical joining member , wherein the female vertical joining member comprises a lip protruding substantially parallel to and from the lower side of the panel at the second edge , characterized in that said lip has a depression which is at least locally covered by the locking element , said depression having an upright wall near the free end of the lip and the locking element being adjacent to this upright wall when the locking element is in its second position, wherein the male vertical joining member comprises a protrusion adapted to co-operate with the locking element at a position above the depression of the female vertical joining member .
An apparatus comprising at least one processor, and at least one memory including computer program code, wherein the at least one memory and the computer program code are configured, with the at least one processor, to cause the apparatus to: receive a first transmission from a second terminal device ; measure over a first time window to provide a measured channel busy ratio; determine a determined channel occupancy ratio based at least partly on the received first transmission ; update the measured channel busy ratio based at least partly on the determined channel occupancy ratio and the measured channel busy ratio , wherein the measured channel busy ratio is updated by subtracting at least a part of the determined channel occupancy ratio from the measured channel busy ratio; determine a channel occupancy ratio limit based at least partly on the updated measured channel busy ratio and a sidelink transmit power of the apparatus ; wherein the apparatus is comprised in a first terminal device . receive a first transmission from a second terminal device ; measure over a first time window to provide a measured channel busy ratio; determine a determined channel occupancy ratio based at least partly on the received first transmission ; update the measured channel busy ratio based at least partly on the determined channel occupancy ratio and the measured channel busy ratio , wherein the measured channel busy ratio is updated by subtracting at least a part of the determined channel occupancy ratio from the measured channel busy ratio; determine a channel occupancy ratio limit based at least partly on the updated measured channel busy ratio and a sidelink transmit power of the apparatus ; wherein the apparatus is comprised in a first terminal device .
A system for measuring corrosion rate comprising: a corrosion probe body for insertion within an interior of an equipment through which corrodant fluid flows, wherein the corrosion probe body comprises a material substantially identical to that of the equipment; a plurality of sensors on the corrosion probe body that includes an ultrasonic source configured to provide an ultrasonic signal into the probe body material, and a receiver configured to receive reflections of the ultrasonic signal from the probe body material and generate electrical response signals indicative of the travel time of the ultrasonic signal, wherein the plurality of sensors comprises at least a first sensor and a second sensor, and wherein the first sensor has a first focal point located at a first probe thickness corresponding to the initial thickness of the probe wall, and the second sensor has a second focal point located at a second probe thickness corresponding to the minimum thickness of the probe wall; a processor configured to process the electrical response signals and produce corresponding metal loss and corrosion data; and a communication unit to communicate the corresponding corrosion data to a display a corrosion probe body for insertion within an interior of an equipment through which corrodant fluid flows, wherein the corrosion probe body comprises a material substantially identical to that of the equipment; a plurality of sensors on the corrosion probe body that includes an ultrasonic source configured to provide an ultrasonic signal into the probe body material, and a receiver configured to receive reflections of the ultrasonic signal from the probe body material and generate electrical response signals indicative of the travel time of the ultrasonic signal, wherein the plurality of sensors comprises at least a first sensor and a second sensor, and wherein the first sensor has a first focal point located at a first probe thickness corresponding to the initial thickness of the probe wall, and the second sensor has a second focal point located at a second probe thickness corresponding to the minimum thickness of the probe wall; a processor configured to process the electrical response signals and produce corresponding metal loss and corrosion data; and a communication unit to communicate the corresponding corrosion data to a display
A product formed of a cobalt based alloy, the cobalt based alloy having a chemical composition consisting of: 0.08 to 0.25 mass % of carbon; 0.1 mass % or less of boron; 10 to 30 mass % of chromium; 5 mass % or less of iron, 30 mass % or less of nickel, the total amount of the iron and the nickel being 30 mass % or less; tungsten and/or molybdenum, the total amount of the tungsten and the molybdenum being 5 to 12 mass %; optionally 2 mass % or less of rhenium; at least one of titanium, zirconium, hafnium, vanadium, niobium and tantalum, the total amount of the titanium, the zirconium, the hafnium, the vanadium, the niobium and the tantalum being 0.5 to 2 mass %; 0.5 mass % or less of silicon; 0.5 mass % or less of manganese; 0.003 to 0.04 mass % of nitrogen; and the balance being cobalt and impurities, the impurities including 0.5 mass % or less of aluminum, and 0.04 mass % or less of oxygen, wherein the product is a polycrystalline body of matrix phase crystal grains, and wherein in the polycrystalline body MC type carbide phase grains and M23C6 type carbide phase grains are co-precipitated, the MC type carbide phase grains being dispersively precipitated in the matrix phase crystal grains at an average intergrain distance of 0.13 to 2 μm, the M23C6 type carbide phase grains being precipitated on grain boundaries of the matrix phase crystal grains. 0.08 to 0.25 mass % of carbon; 0.1 mass % or less of boron; 10 to 30 mass % of chromium; 5 mass % or less of iron, 30 mass % or less of nickel, the total amount of the iron and the nickel being 30 mass % or less; tungsten and/or molybdenum, the total amount of the tungsten and the molybdenum being 5 to 12 mass %; optionally 2 mass % or less of rhenium; at least one of titanium, zirconium, hafnium, vanadium, niobium and tantalum, the total amount of the titanium, the zirconium, the hafnium, the vanadium, the niobium and the tantalum being 0.5 to 2 mass %; 0.5 mass % or less of silicon; 0.5 mass % or less of manganese; 0.003 to 0.04 mass % of nitrogen; and the balance being cobalt and impurities, the impurities including 0.5 mass % or less of aluminum, and 0.04 mass % or less of oxygen, wherein the product is a polycrystalline body of matrix phase crystal grains, and wherein in the polycrystalline body MC type carbide phase grains and M23C6 type carbide phase grains are co-precipitated, the MC type carbide phase grains being dispersively precipitated in the matrix phase crystal grains at an average intergrain distance of 0.13 to 2 μm, the M23C6 type carbide phase grains being precipitated on grain boundaries of the matrix phase crystal grains.
A supporting device for laying tiles comprising: - a base ; - a separator element projecting from the base; and - a pusher element adapted to cooperate with the separator element and provided with a planar end adapted to be directed towards the base , wherein the base comprises two flaps arranged at opposite sides with respect to the separator element , wherein the flaps are tilted between each other and form a dihedral angle lower than the straight angle opposite to the separator element ; and characterized in that the device further comprises - a washer provided with a pass-through opening configured to be fitted onto the separator element , so as to be interposed between the pusher element and the base ; wherein the washer comprises at least a first planar surface directed towards the pusher element and a second surface directed towards the base , wherein the second surface comprises at least a pair of support planes arranged on opposite sides with respect to the pass-through opening , wherein the pair of support planes are tilted between each other and form an additional dihedral angle lower than the straight angle. - a base ; - a separator element projecting from the base; and - a pusher element adapted to cooperate with the separator element and provided with a planar end adapted to be directed towards the base , wherein the base comprises two flaps arranged at opposite sides with respect to the separator element , wherein the flaps are tilted between each other and form a dihedral angle lower than the straight angle opposite to the separator element ; and characterized in that the device further comprises - a washer provided with a pass-through opening configured to be fitted onto the separator element , so as to be interposed between the pusher element and the base ; - a washer provided with a pass-through opening configured to be fitted onto the separator element , so as to be interposed between the pusher element and the base ; wherein the washer comprises at least a first planar surface directed towards the pusher element and a second surface directed towards the base , wherein the second surface comprises at least a pair of support planes arranged on opposite sides with respect to the pass-through opening , wherein the pair of support planes are tilted between each other and form an additional dihedral angle lower than the straight angle.