mhurhangee/patent-ind-claim-en huggingface dataset:
An electromagnetic wave transmitting device , comprising: a body comprising a transmitting end and a receiving end ; and a heating assembly disposed on at least a perimeter of the body , wherein the heating assembly comprises: an electrically resistive element (131, 431, 631; 132, 432, 433) having a main portion and a connective portion electrically coupled to the main portion , and an electrical connector , wherein the main portion of the electrically resistive element (131, 431, 631; 132, 432, 433) wraps less than one time around the perimeter of the body to cover a majority of the perimeter of the transmitting end , wherein the electrically resistive element (131, 431, 631; 132, 432, 433) has the form of a foil, wherein the electrical connector is disposed on a distal end of the connective portion , wherein the heating assembly is configured to prevent condensation and precipitation from accumulating on the body , and wherein the heating assembly is positioned relative to the body to allow light emitted by a light source to be received by the receiving end of the body and transmitted out the transmitting end of the body . a body comprising a transmitting end and a receiving end ; and a heating assembly disposed on at least a perimeter of the body , wherein the heating assembly comprises: an electrically resistive element (131, 431, 631; 132, 432, 433) having a main portion and a connective portion electrically coupled to the main portion , and an electrical connector , wherein the main portion of the electrically resistive element (131, 431, 631; 132, 432, 433) wraps less than one time around the perimeter of the body to cover a majority of the perimeter of the transmitting end , wherein the electrically resistive element (131, 431, 631; 132, 432, 433) has the form of a foil, wherein the electrical connector is disposed on a distal end of the connective portion , wherein the heating assembly is configured to prevent condensation and precipitation from accumulating on the body , and wherein the heating assembly is positioned relative to the body to allow light emitted by a light source to be received by the receiving end of the body and transmitted out the transmitting end of the body . an electrically resistive element (131, 431, 631; 132, 432, 433) having a main portion and a connective portion electrically coupled to the main portion , and an electrical connector , wherein the main portion of the electrically resistive element (131, 431, 631; 132, 432, 433) wraps less than one time around the perimeter of the body to cover a majority of the perimeter of the transmitting end , wherein the electrically resistive element (131, 431, 631; 132, 432, 433) has the form of a foil, wherein the electrical connector is disposed on a distal end of the connective portion , wherein the heating assembly is configured to prevent condensation and precipitation from accumulating on the body , and wherein the heating assembly is positioned relative to the body to allow light emitted by a light source to be received by the receiving end of the body and transmitted out the transmitting end of the body .
An electronic device (MG, 201) having an optical lens assembly and an image sensor that receives an image formed by the lens assembly and converts the image into an electrical image signal, the lens assembly comprising a sequence of at least two lenses (L1, L2, L3, L4) arranged along an axis (OA) from an object side (O) to an image side (I), characterized in that at least one of the sequence of at least two lenses consists of a first lens (L1), a second lens (L2), a third lens (L3), and a fourth lens (L4), which are sequentially arranged from the object side (O) to the image side (I), and the second lens (L2) or the third lens (L3) comprises the object side surface having a planar central region, the image side surface having a planar central region, and the peripheral region having an aspherical surface, and wherein the at least one lens satisfies the following equation: 0.01 < " φ flat − object / φ full" < 0 .5 , wherein φflat-object is a diameter of the planar central region of the object side surface, and φfull is an effective diameter of the at least one lens.
A grease composition comprising a base oil (a), a diurea compound (b), an amide compound (c), and a thiophosphorous compound or a thiophosphoric acid ester compound (d), wherein the diurea compound (b) includes a compound represented by Formula R 1 -NHCONH-R 2 -NHCONH-R 3 wherein R 1 and R 3 represent an acyclic aliphatic hydrocarbon group having from 8 to 20 carbon atoms, and R 2 represents a diphenylmethane group and further comprising an amine compound (f) represented by Formula R 4 -NH-R 5 -NH 2 wherein R 4 represents a saturated or an unsaturated hydrocarbon group having from 5 to 18 carbon atoms, and R 5 represents a saturated or an unsaturated hydrocarbon group having from 2 to 3 carbon atoms, wherein the amount of amine compound (f) used per 100% by mass of the overall grease composition is 0.1 to 10% by mass. wherein R 1 and R 3 represent an acyclic aliphatic hydrocarbon group having from 8 to 20 carbon atoms, and R 2 represents a diphenylmethane group and further comprising an amine compound (f) represented by Formula R 4 -NH-R 5 -NH 2 wherein R 4 represents a saturated or an unsaturated hydrocarbon group having from 5 to 18 carbon atoms, and R 5 represents a saturated or an unsaturated hydrocarbon group having from 2 to 3 carbon atoms, wherein the amount of amine compound (f) used per 100% by mass of the overall grease composition is 0.1 to 10% by mass.
A thermal runaway barrier operatively adapted for being disposed between battery cells of a battery assembly and for at least significantly slowing down a thermal runaway event within the battery assembly, said thermal runaway barrier consisting essentially of: a single-layer of a nonwoven fibrous thermal insulation comprising a fiber matrix of inorganic fibers, thermally insulative inorganic particles dispersed within the fiber matrix, and a binder dispersed within the fiber matrix so as to hold together the fiber matrix; and an organic encapsulation layer; wherein the layer of nonwoven fibrous thermal insulation is encapsulated by the organic encapsulation layer, and wherein the organic encapsulation layer has at least one vent hole formed therethrough that is located and sized to allow gas contained within the thermal runaway barrier to escape from the organic encapsulation, such that the structural integrity of the organic encapsulation layer is kept intact, during a thermal runaway event. a single-layer of a nonwoven fibrous thermal insulation comprising a fiber matrix of inorganic fibers, thermally insulative inorganic particles dispersed within the fiber matrix, and a binder dispersed within the fiber matrix so as to hold together the fiber matrix; and an organic encapsulation layer; wherein the layer of nonwoven fibrous thermal insulation is encapsulated by the organic encapsulation layer, and wherein the organic encapsulation layer has at least one vent hole formed therethrough that is located and sized to allow gas contained within the thermal runaway barrier to escape from the organic encapsulation, such that the structural integrity of the organic encapsulation layer is kept intact, during a thermal runaway event.
A lithium secondary battery at least comprising: an electrode group comprising a positive electrode, a negative electrode, and a separator interposed between the electrodes; and a nonaqueous electrolyte comprising a nonaqueous solvent and a lithium salt contained therein, the electrode group and the nonaqueous electrolyte being held in a battery case, and the positive electrode and the negative electrode each comprising a current collector and, formed thereon, an active-material layer containing an active material capable of occluding/releasing a lithium ion, wherein the nonaqueous electrolyte is a nonaqueous electrolyte which contains difluorophosphoric acid salt in an amount of 10 ppm or more of the whole nonaqueous electrolyte, wherein the difluorophosphoric acid salt is lithium difluorophosphate; and the positive electrode is: positive electrode : a positive electrode containing a positive-electrode active material having a composition represented by the following composition formula : Li x Ni (1-y-z) Co y M z O 2 composition formula wherein M represents at least one element selected from the group consisting of Mn, Al, Fe, Ti, Mg, Cr, Ga, Cu, Zn, and Nb; x represents a number satisfying 0<x≤1.2; y represents a number satisfying 0.05≤y≤0.5; and z represents a number satisfying 0.01≤z≤0.5.
A method for manufacturing of a multi-layer liquid crystal film comprising steps of forming an alignment film on a first liquid crystal film and forming a second liquid crystal film on the alignment film, wherein the first liquid crystal film is a horizontally oriented liquid crystal film, the second liquid crystal film is a vertically oriented liquid crystal film, and the alignment film is a vertical alignment film which is manufactured by applying a vertical alignment film composition containing 2 wt% to 15 wt% of a multifunctional acrylate, 0.2 wt% to 2 wt% of a photoinitiator and a remainder solvent on the horizontally oriented liquid crystal film and polymerizing it, or wherein the first liquid crystal film is a vertically oriented liquid crystal film, the second liquid crystal film is a horizontally oriented liquid crystal film, and the alignment film is a horizontal alignment film which is manufactured by applying a photo-alignment film material on the vertically oriented liquid crystal film and irradiating it with polarized ultraviolet light.
A seal device for a shaft comprising, an outer diameter static seal structure having a first axially extending portion , a transitional portion , a second axially extending portion , and a radially, inwardly extending depending portion that terminates in a contamination protrusion , a wear ring having an axially extending portion , a transition portion 136, and a radially, outwardly extending portion , and an inner diameter static seal structure co-extensive with the wear ring, the inner diameter static seal structure comprising: an axially extending portion ; a radially, outwardly depending portion , wherein the radially depending portion comprises at least one axially extending shelf onto which the contamination protrusion terminates; a terminal portion ; and a resilient member extending axially along the axially extending portion, wherein the resilient member is biased to diverge from the axially extending portion at an angle. an outer diameter static seal structure having a first axially extending portion , a transitional portion , a second axially extending portion , and a radially, inwardly extending depending portion that terminates in a contamination protrusion , a wear ring having an axially extending portion , a transition portion 136, and a radially, outwardly extending portion , and an inner diameter static seal structure co-extensive with the wear ring, the inner diameter static seal structure comprising: an axially extending portion ; a radially, outwardly depending portion , wherein the radially depending portion comprises at least one axially extending shelf onto which the contamination protrusion terminates; a terminal portion ; and a resilient member extending axially along the axially extending portion, wherein the resilient member is biased to diverge from the axially extending portion at an angle. an axially extending portion ; a radially, outwardly depending portion , wherein the radially depending portion comprises at least one axially extending shelf onto which the contamination protrusion terminates; a terminal portion ; and a resilient member extending axially along the axially extending portion, wherein the resilient member is biased to diverge from the axially extending portion at an angle.
A system for monitoring a health of an air data probe heater connected to a power supply by a first power lead conducting an inlet current and a second power lead conducting an outlet current, the system comprising: an injection transformer , comprising a plurality of primary turns that are inductively coupleable to the first power lead; and characterized by : a signal generator , configured to: generate a time-varying injection signal; and supply the time-varying injection signal to the plurality of primary turns, thereby capable of impressing the time-varying injection signal on the inlet current; and a signal reader , configured to: receive a diagnostic signal from the air data probe heater; filter the diagnostic signal to pass a frequency associated with the time-varying injection signal; and produce a heater capacitance signal that is indicative of a capacitance value of the air data probe heater; wherein: the heater capacitance signal is indicative of the health of the air data probe heater. an injection transformer , comprising a plurality of primary turns that are inductively coupleable to the first power lead; and characterized by : a signal generator , configured to: generate a time-varying injection signal; and supply the time-varying injection signal to the plurality of primary turns, thereby capable of impressing the time-varying injection signal on the inlet current; and generate a time-varying injection signal; and supply the time-varying injection signal to the plurality of primary turns, thereby capable of impressing the time-varying injection signal on the inlet current; and a signal reader , configured to: receive a diagnostic signal from the air data probe heater; filter the diagnostic signal to pass a frequency associated with the time-varying injection signal; and produce a heater capacitance signal that is indicative of a capacitance value of the air data probe heater; receive a diagnostic signal from the air data probe heater; filter the diagnostic signal to pass a frequency associated with the time-varying injection signal; and produce a heater capacitance signal that is indicative of a capacitance value of the air data probe heater; wherein: the heater capacitance signal is indicative of the health of the air data probe heater.
Variable clothes combination with at least one upper part for at least partially clothing a human upper body part and at least one lower part for at least partially clothing a human lower body part, wherein the upper part is detachably connected to the lower part , comprising - at least one horizontal separable zipper arranged circumferentially between the upper part and the lower part , of which a longitudinal section is fixed to the upper part and a further longitudinal section is fixed to the lower part , - at least one inseparable zipper extending up to an upper end portion of the lower part facing the upper part and over part of a height of the lower part , - wherein the horizontal separable zipper is arranged completely circumferentially between the upper part and the lower part , such that its end portions are slightly spaced apart from each other or contact each other, characterized by - at least one vertical separable zipper arranged on a back portion of the upper part and extending along the upper part in the height direction (H) of the clothing combination , - wherein the vertical separable zipper and the inseparable zipper are arranged in alignment with each other in the height direction (H) of the clothing combination , and - wherein end portions of the horizontal separable zipper , given with respect to a longitudinal extension of the horizontal separable zipper , are arranged in an area lying between the vertical separable zipper and the inseparable zipper and adjacent to one another. - at least one horizontal separable zipper arranged circumferentially between the upper part and the lower part , of which a longitudinal section is fixed to the upper part and a further longitudinal section is fixed to the lower part , - at least one inseparable zipper extending up to an upper end portion of the lower part facing the upper part and over part of a height of the lower part , - wherein the horizontal separable zipper is arranged completely circumferentially between the upper part and the lower part , such that its end portions are slightly spaced apart from each other or contact each other, characterized by - at least one vertical separable zipper arranged on a back portion of the upper part and extending along the upper part in the height direction (H) of the clothing combination , - wherein the vertical separable zipper and the inseparable zipper are arranged in alignment with each other in the height direction (H) of the clothing combination , and - wherein end portions of the horizontal separable zipper , given with respect to a longitudinal extension of the horizontal separable zipper , are arranged in an area lying between the vertical separable zipper and the inseparable zipper and adjacent to one another.
Adaptive-speed vibration absorber having a disc part which rotates about a rotational axis, and having a plurality of absorber masses which are arranged on the said disc part over the circumference and vibrate in a manner which is tuned to a predefined first vibration order along a first vibration angle which is forced along an epicyclical first vibration path, characterized in that , in the case of second vibration angles which exceed the first vibration angles, the absorber masses are guided on second vibration paths which force a second vibration order which is changed in comparison with the first vibration order.
A method of manufacturing a steel cord for a tire reinforcement comprising a middle strand formed by stranding a plurality of core wires and disposed in a core region inside the steel cord and an upper strand formed by stranding a plurality of element wires and stranded on an outer surface of the middle strand , the method is characterized in that the method comprises: (a) twisting the plurality of element wires constituting the upper strand by rotating a rotary wheel (Q) of an upper strand supplier (O); (b) untwisting the plurality of the twisted element wires in an untwisting machine (P) to form the element wires having a preforming having a predetermined pitch; (c) supplying the middle strand in a middle strand supplier (S) that does not rotate and stranding the element wires having the preforming on the middle strand to form the upper strand on the middle strand , so that the middle strand is bunched with the upper strand without torsion, wherein the supplying of the middle strand includes (d) stranding the plurality of core wires to form the middle strand ; and (e) forming a flat surface between the plurality of core wires by pressurizing the middle strand , wherein the flat surface is a region having an infinite curvature or having a radius of curvature that is greater than a radius of curvature of other regions. (a) twisting the plurality of element wires constituting the upper strand by rotating a rotary wheel (Q) of an upper strand supplier (O); (b) untwisting the plurality of the twisted element wires in an untwisting machine (P) to form the element wires having a preforming having a predetermined pitch; (c) supplying the middle strand in a middle strand supplier (S) that does not rotate and stranding the element wires having the preforming on the middle strand to form the upper strand on the middle strand , so that the middle strand is bunched with the upper strand without torsion, wherein the supplying of the middle strand includes (d) stranding the plurality of core wires to form the middle strand ; and (e) forming a flat surface between the plurality of core wires by pressurizing the middle strand , wherein the flat surface is a region having an infinite curvature or having a radius of curvature that is greater than a radius of curvature of other regions.
A computer-implemented method for visualizing a map of atrial fibrillation,AF, in a heart, the method comprising: receiving an electrogram, EGM, signal exhibiting the AF, acquired at a given position in the heart; identifying , in the EGM signal, two or more primary activation peaks and calculating a cycle length, CL, between adjacent primary activation peaks; identifying , in the EGM signal, one or more fragmentation peaks within the CL, wherein identifying the one or more fragmentation peaks comprises identifying one of more candidate peaks, wherein each of the one or more candidate peaks has an absolute value larger than a noise threshold, and wherein identifying the one or more fragmentation peaks comprises merging, based on being within a predefined time interval and on having the same sign, two or more adjacent candidate peaks in the EGM signal; calculating a local fragmentation index, FI, that is indicative of a number of the fragmentation peaks per CL; and visualizing , on a display, the local FI on a map of at least part of the heart. receiving an electrogram, EGM, signal exhibiting the AF, acquired at a given position in the heart; identifying , in the EGM signal, two or more primary activation peaks and calculating a cycle length, CL, between adjacent primary activation peaks; identifying , in the EGM signal, one or more fragmentation peaks within the CL, wherein identifying the one or more fragmentation peaks comprises identifying one of more candidate peaks, wherein each of the one or more candidate peaks has an absolute value larger than a noise threshold, and wherein identifying the one or more fragmentation peaks comprises merging, based on being within a predefined time interval and on having the same sign, two or more adjacent candidate peaks in the EGM signal; calculating a local fragmentation index, FI, that is indicative of a number of the fragmentation peaks per CL; and visualizing , on a display, the local FI on a map of at least part of the heart.