mhurhangee/patent-ind-claim-en huggingface dataset:
A monitoring system, for monitoring a felt and its environment, the monitoring system comprising: - at least one independent measuring unit (g) fixed to the felt or on a support structure (a) of the felt, comprising at least one of the following sensors: temperature, humidity, pH, pressure or air flow; - a central acquisition (d) unit comprising at least a microcontroller, a real-time clock, a first communication transceiver for connecting to the at least one independent measuring unit, an inertial sensor for detecting movement of factory equipment, and a second communication transceiver for connecting to a computing device and - a polymeric encapsulation material layer (b), wherein the polymeric encapsulation material layer (b) has a maximum operating temperature between -5°C to 275°C, has a thermal conductivity between 0,18 and 0,68 W/mK, a viscosity between 2.000 and 10.000 mPa.s, and a thickness between 2 and 6 mm; characterized in that said central acquisition unit (d) is configured to set the system in standby status if detecting that the inertial sensor does not sense movement for a specific time and disabling the acquisition and transmission of data from the at least one independent measuring unit (g) fixed in the felt or on its support structure (a). - at least one independent measuring unit (g) fixed to the felt or on a support structure (a) of the felt, comprising at least one of the following sensors: temperature, humidity, pH, pressure or air flow; - a central acquisition (d) unit comprising at least a microcontroller, a real-time clock, a first communication transceiver for connecting to the at least one independent measuring unit, an inertial sensor for detecting movement of factory equipment, and a second communication transceiver for connecting to a computing device and - a polymeric encapsulation material layer (b), wherein the polymeric encapsulation material layer (b) has a maximum operating temperature between -5°C to 275°C, has a thermal conductivity between 0,18 and 0,68 W/mK, a viscosity between 2.000 and 10.000 mPa.s, and a thickness between 2 and 6 mm;
An inspection device , comprising: a main base ; a lateral base , the main base and the lateral base being connected to form a substantially L-shaped base ; at least one main magnetic module mounted to the main base for attaching the main base to a first surface of a wheel under a first magnetic force between the at least one main magnetic module and the wheel; a main inspection module mounted to the main base for detecting defects of the wheel; at least one lateral magnetic module mounted to the lateral base for attaching the lateral base to a second surface of the wheel under a second magnetic force between the at least one lateral magnetic module and the wheel; at least one rolling module mounted on the main base for reducing a friction force between the main base and the wheel when the main base moves relative to the wheel; and at least one rotatable member mounted to the lateral base , wherein each rotatable member is adapted to contact with a surface of the wheel and is rotatable to allow the lateral base to move relative to the surface. a main base ; a lateral base , the main base and the lateral base being connected to form a substantially L-shaped base ; at least one main magnetic module mounted to the main base for attaching the main base to a first surface of a wheel under a first magnetic force between the at least one main magnetic module and the wheel; a main inspection module mounted to the main base for detecting defects of the wheel; at least one lateral magnetic module mounted to the lateral base for attaching the lateral base to a second surface of the wheel under a second magnetic force between the at least one lateral magnetic module and the wheel; at least one rolling module mounted on the main base for reducing a friction force between the main base and the wheel when the main base moves relative to the wheel; and at least one rotatable member mounted to the lateral base , wherein each rotatable member is adapted to contact with a surface of the wheel and is rotatable to allow the lateral base to move relative to the surface.
Lithium/sulphur electrochemical cell comprising: a) a cathode comprising: i) carbon having a porous structure comprising pores with a mean diameter less than or equal to 6 nm; ii) sulphur with a degree of oxidation that can range from 0 to -2 in the pores of the carbon; b) an electrolyte comprising: i) at least one organic solvent which is a carbonate; ii) one or more salts, at least one salt being lithium bis(fluorosulfonyl)imide (LiFSI); c) an anode comprising lithium metal or a metallic alloy of lithium, wherein the mean pore diameter is determined by the method set out in the description. a) a cathode comprising: i) carbon having a porous structure comprising pores with a mean diameter less than or equal to 6 nm; ii) sulphur with a degree of oxidation that can range from 0 to -2 in the pores of the carbon; i) carbon having a porous structure comprising pores with a mean diameter less than or equal to 6 nm; ii) sulphur with a degree of oxidation that can range from 0 to -2 in the pores of the carbon; b) an electrolyte comprising: i) at least one organic solvent which is a carbonate; ii) one or more salts, at least one salt being lithium bis(fluorosulfonyl)imide (LiFSI); i) at least one organic solvent which is a carbonate; ii) one or more salts, at least one salt being lithium bis(fluorosulfonyl)imide (LiFSI); c) an anode comprising lithium metal or a metallic alloy of lithium, wherein the mean pore diameter is determined by the method set out in the description.
A transmission device for transmitting a data packet via a communication channel, the transmission device comprising: a memory in which an allocation table is stored, the allocation table indicating an allocation between a plurality of function terms and a plurality of reference data packets, each function term respectively representing a function process; a processor which is configured to select a function term from the plurality of function terms, the selected function term being assigned to a reference data packet corresponding to the data packet, to transform the selected function term using a predetermined functional transformation in order to obtain a transformed function term and to generate a communication message, the communication message comprising the transformed function term; and a communication interface which is configured to send the communication message via the communication channel in order to transmit the data packet via the communication channel to a receiving device , the functional transformation used and an associated functional inverse transformation consequently forming a shared secret between the transmission device and the receiving device , thereby enabling a protected transmission of the data packet via the communication channel. a memory in which an allocation table is stored, the allocation table indicating an allocation between a plurality of function terms and a plurality of reference data packets, each function term respectively representing a function process; a processor which is configured to select a function term from the plurality of function terms, the selected function term being assigned to a reference data packet corresponding to the data packet, to transform the selected function term using a predetermined functional transformation in order to obtain a transformed function term and to generate a communication message, the communication message comprising the transformed function term; and a communication interface which is configured to send the communication message via the communication channel in order to transmit the data packet via the communication channel to a receiving device , the functional transformation used and an associated functional inverse transformation consequently forming a shared secret between the transmission device and the receiving device , thereby enabling a protected transmission of the data packet via the communication channel.
A shape measurement apparatus configured to measure a surface shape of a strip-shaped body (S) made of a metallic body, the shape measurement apparatus comprising: a linear light source that includes a superluminescent diode and is configured to apply linear light spreading in a width direction of the strip-shaped body (S) to a surface of the strip-shaped body (S); a screen arranged so that reflected light of the linear light off the surface of the strip-shaped body (S) is projected on the screen; an area camera configured to capture an image of the reflected light of the linear light projected on the screen ; and an arithmetic processing apparatus configured to calculate the surface shape of the strip-shaped body (S) using the captured image of the reflected light of the linear light captured by the area camera , wherein the linear light source has a spectral half-width of 20 nm or more, and is placed in a manner that an angle θ formed by an optical axis of the linear light source and a direction normal to the surface of the strip-shaped body (S) and a wavelength λ of the linear light in μm satisfy Formula (I) below related to specularity of the strip-shaped body (S), [Math. 1] cos ⁢ θ λ ≤ 1 2 ⁢ π wherein the linear light source is configured so that on the surface of the strip-shaped body (S), a line width W of the linear light along a longitudinal direction of the strip-shaped body (S) is controlled so as to satisfy Formula (II) below, [Math. 2] W L min ≤ λ 2 ⁢ π where L min is a minimum value of a size of the surface shape to be measured along the longitudinal direction, and λ is the wavelength of the linear light in μm. a linear light source that includes a superluminescent diode and is configured to apply linear light spreading in a width direction of the strip-shaped body (S) to a surface of the strip-shaped body (S); a screen arranged so that reflected light of the linear light off the surface of the strip-shaped body (S) is projected on the screen; an area camera configured to capture an image of the reflected light of the linear light projected on the screen ; and an arithmetic processing apparatus configured to calculate the surface shape of the strip-shaped body (S) using the captured image of the reflected light of the linear light captured by the area camera , wherein the linear light source has a spectral half-width of 20 nm or more, and is placed in a manner that an angle θ formed by an optical axis of the linear light source and a direction normal to the surface of the strip-shaped body (S) and a wavelength λ of the linear light in μm satisfy Formula (I) below related to specularity of the strip-shaped body (S), [Math. 1] cos ⁢ θ λ ≤ 1 2 ⁢ π wherein the linear light source is configured so that on the surface of the strip-shaped body (S), a line width W of the linear light along a longitudinal direction of the strip-shaped body (S) is controlled so as to satisfy Formula (II) below, [Math. 2] W L min ≤ λ 2 ⁢ π where L min is a minimum value of a size of the surface shape to be measured along the longitudinal direction, and λ is the wavelength of the linear light in μm.
An operation management apparatus comprising: correlation model storage means for storing a transform function for each combination of two different performance metrics among a plurality of performance metrics with respect to each of a plurality of target apparatuses to be monitored, said transform function indicating a correlation between said two performance metrics; failure detection means for obtaining measured values of said plurality of performance metrics with respect to each of said plurality of target apparatuses to be monitored that are connected to a common apparatus, and for detecting said combination of said two performance metrics as an abnormal item when a difference between a value obtained by inputting a measured value of one of said two performance metrics among said plurality of performance metrics in said transform function corresponding to said two performance metrics and a measured value of the other is equal to or greater than a predetermined value; spread determination means for extracting the abnormal item that is common to all the target apparatus to be monitored, and for outputting remaining abnormal item; and abnormality score calculation means for calculating an abnormality score for each of said plurality of target apparatuses to be monitored based on the number of said remaining abnormal items, and outputting said abnormality score to a terminal that displays a screen including said plurality of target apparatuses arranged according to said abnormality score. correlation model storage means for storing a transform function for each combination of two different performance metrics among a plurality of performance metrics with respect to each of a plurality of target apparatuses to be monitored, said transform function indicating a correlation between said two performance metrics; failure detection means for obtaining measured values of said plurality of performance metrics with respect to each of said plurality of target apparatuses to be monitored that are connected to a common apparatus, and for detecting said combination of said two performance metrics as an abnormal item when a difference between a value obtained by inputting a measured value of one of said two performance metrics among said plurality of performance metrics in said transform function corresponding to said two performance metrics and a measured value of the other is equal to or greater than a predetermined value; spread determination means for extracting the abnormal item that is common to all the target apparatus to be monitored, and for outputting remaining abnormal item; and abnormality score calculation means for calculating an abnormality score for each of said plurality of target apparatuses to be monitored based on the number of said remaining abnormal items, and outputting said abnormality score to a terminal that displays a screen including said plurality of target apparatuses arranged according to said abnormality score.
A motorcycle tire having a carcass , wherein the carcass includes a carcass ply that is a layer of carcass cords , the carcass ply includes a first ply , and a second ply layered on the first ply in a tire radial direction, the first ply includes: a toroidal body portion extending from a tread portion through sidewall portions to bead cores of bead portions ; and turned-up portions turned up around the bead cores from an inner side to an outer side in a tire axial direction, the second ply is formed as a portion extending from the tread portion toward the bead portions and terminating without being turned up around the bead cores , the tire being characterized in that a thickness of each carcass cord of the second ply is smaller than a thickness of each carcass cord of the first ply .
A controller, comprising: a first circuit board , wherein a first connector is disposed on the first circuit board ; a radio frequency module , disposed on the first circuit board ; a control chip , disposed on the first circuit board ; and a second circuit board , wherein a second connector is disposed on the second circuit board , wherein the first circuit board is detachably mounted to the second circuit board through a connection between the first connector and the second connector , wherein the controller further comprises a thermoelectric cooler and a shield , wherein the thermoelectric cooler is disposed on the first circuit board so as to dissipate heat for the control chip , wherein the shield shields the control chip and the thermoelectric cooler so as to suppress condensation generated between the control chip and the thermoelectric cooler . a first circuit board , wherein a first connector is disposed on the first circuit board ; a radio frequency module , disposed on the first circuit board ; a control chip , disposed on the first circuit board ; and a second circuit board , wherein a second connector is disposed on the second circuit board , wherein the first circuit board is detachably mounted to the second circuit board through a connection between the first connector and the second connector , wherein the controller further comprises a thermoelectric cooler and a shield , wherein the thermoelectric cooler is disposed on the first circuit board so as to dissipate heat for the control chip , wherein the shield shields the control chip and the thermoelectric cooler so as to suppress condensation generated between the control chip and the thermoelectric cooler .
An article comprising a porous, air-permeable composite comprising an expanded polytetrafluoroethylene (ePTFE) substrate having a microstructure comprising nodes, fibrils and pores, said nodes being interconnected by said fibrils and said pores being a void space between said nodes and fibrils; and at least one polymer coating, wherein the polymer coating comprises a polyimide or polyurethane polymer and wherein said polymer coating coats the nodes and fibrils of said ePTFE substrate without occluding the pores wherein said composite exhibits Gurley air flow of less than 500 seconds; a mass per area of 75 gm/m 2 or less; and a product of average tensile strength (ATS) x Z-Strength of at least 100 MPa 2 ; wherein ATS = (Tensile strength in x-direction + Tensile strength in y-direction)/2 and wherein the Z-strength is the amount of stress required in Z-direction of the substrate to cause failure due to splitting of the substrate; where x and y are orthogonal directions in the plane of the material Z is in the direction through the thickness of the substrate; wherein Tensile strength and Z-strength are measured as described in the Test Methods set out in the description; wherein the tensile strength of the polymer is at least 5 times higher than the Z-strength of the ePTFE substrate before coating; wherein the polymer content of the composite is between 3 and 25 percent by weight of the composite; and wherein said polymer coating coats said nodes and fibrils throughout a thickness of said ePTFE substrate. a porous, air-permeable composite comprising an expanded polytetrafluoroethylene (ePTFE) substrate having a microstructure comprising nodes, fibrils and pores, said nodes being interconnected by said fibrils and said pores being a void space between said nodes and fibrils; and at least one polymer coating, wherein the polymer coating comprises a polyimide or polyurethane polymer and wherein said polymer coating coats the nodes and fibrils of said ePTFE substrate without occluding the pores wherein said composite exhibits Gurley air flow of less than 500 seconds; a mass per area of 75 gm/m 2 or less; and a product of average tensile strength (ATS) x Z-Strength of at least 100 MPa 2 ; wherein ATS = (Tensile strength in x-direction + Tensile strength in y-direction)/2 and wherein the Z-strength is the amount of stress required in Z-direction of the substrate to cause failure due to splitting of the substrate; where x and y are orthogonal directions in the plane of the material Z is in the direction through the thickness of the substrate; wherein Tensile strength and Z-strength are measured as described in the Test Methods set out in the description; wherein the tensile strength of the polymer is at least 5 times higher than the Z-strength of the ePTFE substrate before coating; wherein the polymer content of the composite is between 3 and 25 percent by weight of the composite; and wherein said polymer coating coats said nodes and fibrils throughout a thickness of said ePTFE substrate.
Seeding element, intended to be fixed to the frame of a seeder that uses a plurality of seeding elements, the said seeding element having a tool holder structure carrying at least one seeding tool , the said tool holder structure being connected to the said frame by means of two connecting rods defining substantially parallel axes, referred to as the upper connecting rod and the lower connecting rod respectively, and defining with the said frame on the one hand and the said tool holder structure on the other hand a deformable parallelogram, a traction spring , which can occupy at least two different positions in the said deformable parallelogram in order to allow adjustment of the pressure applied onto the ground by the said seeding element, comprising an adjustment handle allowing the displacement of an upper end of the said traction spring between at least two anchoring points defined on the said upper connecting rod , the said handle comprising a gripping portion and a portion for receiving the said upper end of the traction spring , forming separation between the said upper end and one of the said anchoring points, the said handle being held on the said anchoring point by an action of compression of the said spring , characterised in that the said upper connecting rod substantially defines a circle arc, the centre of rotation of which lies in the vicinity of the forward-oriented axis of the said lower connecting rod .
A method for an apparatus comprising a boost converter having a power supply input for receiving an input power supply voltage of a power supply, an inductor, and an output for generating an output voltage greater than the input power supply voltage, the method comprising: monitoring the input power supply voltage of the power supply; monitoring an inductance of the inductor of the boost converter comprising the inductor; monitoring one or more other characteristics of the boost converter; and calculating a target peak inductor current based on the input power supply voltage, the inductance, the one or more other characteristics of the boost converter, and a target average current of the inductor during a switching cycle of the boost converter. monitoring the input power supply voltage of the power supply; monitoring an inductance of the inductor of the boost converter comprising the inductor; monitoring one or more other characteristics of the boost converter; and calculating a target peak inductor current based on the input power supply voltage, the inductance, the one or more other characteristics of the boost converter, and a target average current of the inductor during a switching cycle of the boost converter.