mhurhangee/ep-ind-claims huggingface dataset:
A battery comprising: a cathode made of a bicontinuous body having a three-dimensional network structure in which a plurality of nanostructures are integrated by noncovalent bonds and having flexibility because bonded portions of the nanostructures are deformable; an anode; an electrolyte made of a salt and sandwiched between the cathode and the anode; and a catalyst carried by the cathode, wherein the catalyst is made of at least one metal selected from iron, manganese, zinc, copper, and molybdenum, or an oxide of at least one metal selected from calcium, iron, manganese, zinc, copper, and molybdenum, wherein each of the plurality of nanostructures comprises: a nanosheet made of carbon; or a nanofiber made of at least one of carbon, and carbonized cellulose, and the cathode is an air electrode. a cathode made of a bicontinuous body having a three-dimensional network structure in which a plurality of nanostructures are integrated by noncovalent bonds and having flexibility because bonded portions of the nanostructures are deformable; an anode; an electrolyte made of a salt and sandwiched between the cathode and the anode; and a catalyst carried by the cathode, wherein the catalyst is made of at least one metal selected from iron, manganese, zinc, copper, and molybdenum, or an oxide of at least one metal selected from calcium, iron, manganese, zinc, copper, and molybdenum, wherein each of the plurality of nanostructures comprises: a nanosheet made of carbon; or a nanofiber made of at least one of carbon, and carbonized cellulose, and the cathode is an air electrode. a nanosheet made of carbon; or a nanofiber made of at least one of carbon, and carbonized cellulose, and the cathode is an air electrode.
An oil ring comprising: an annular main body including first and second rails (11, 12) opposing each other, and a column portion joining the first and second rails (11, 12) and being provided with a plurality of oil thru-holes; and a joint being formed on the main body, wherein the joint includes: on a first rail side, a first protruding portion protruding from one butt end toward the other butt end, and a first receiving portion for receiving the first protruding portion at the other butt end; on a second rail side, a second protruding portion protruding from the other butt end toward the one butt end, and a second receiving portion for receiving the second protruding portion at the one butt end; characterized in that said oil ring further comprises on an outer circumferential surface side of the main body, a first hook protruding from a distal end of the first protruding portion toward the second rail, and a second hook protruding from a distal end of the second protruding portion toward the first rail and engageable with the first hook. an annular main body including first and second rails (11, 12) opposing each other, and a column portion joining the first and second rails (11, 12) and being provided with a plurality of oil thru-holes; and a joint being formed on the main body, wherein the joint includes: on a first rail side, a first protruding portion protruding from one butt end toward the other butt end, and a first receiving portion for receiving the first protruding portion at the other butt end; on a second rail side, a second protruding portion protruding from the other butt end toward the one butt end, and a second receiving portion for receiving the second protruding portion at the one butt end; characterized in that said oil ring further comprises on an outer circumferential surface side of the main body, a first hook protruding from a distal end of the first protruding portion toward the second rail, and a second hook protruding from a distal end of the second protruding portion toward the first rail and engageable with the first hook. on a first rail side, a first protruding portion protruding from one butt end toward the other butt end, and a first receiving portion for receiving the first protruding portion at the other butt end; on a second rail side, a second protruding portion protruding from the other butt end toward the one butt end, and a second receiving portion for receiving the second protruding portion at the one butt end; characterized in that said oil ring further comprises on an outer circumferential surface side of the main body, a first hook protruding from a distal end of the first protruding portion toward the second rail, and a second hook protruding from a distal end of the second protruding portion toward the first rail and engageable with the first hook.
Device (100, 200, 300, 400) for behaviourally monitoring and for measuring physical parameters of an individual (110, 210, 310, 410), comprising means for detecting and for measuring parameters which are representative of the movements and positions of the eyelids and of the eyes of the individual wearing said device on their head, and comprising: - an emitter (7, 8, 10, 11) of light, in a direction directed towards at least one eye, when the device is worn; - a sensor (9, 12) of the light reflected by said eye, delivering a signal which may vary as a function of the covering of the eye by the eyelid; - the device being able to be installed on, mounted on, attached to a device which is able to be worn on the head of an individual in the vicinity of the eyes; characterized in that the processing and comparison means comprise: - an exponential moving average filter of the signal originating from the sensor, referred to as the raw signal; - an adder which is able to compute the difference between the filtered signal and the raw signal; - two comparators (K+, K-) which are able to compare the filtered signal with constants; - two multipliers which are able to multiply the result of the difference between the filtered signal and the raw signal by the result from each comparator; - an adder for adding the results from the two multipliers; - a differentiator for differentiating the signal thus obtained; - detection means for detecting, on the basis of the differentiated signal, whether the device is actually being worn on the head of the individual. - an emitter (7, 8, 10, 11) of light, in a direction directed towards at least one eye, when the device is worn; - a sensor (9, 12) of the light reflected by said eye, delivering a signal which may vary as a function of the covering of the eye by the eyelid; - the device being able to be installed on, mounted on, attached to a device which is able to be worn on the head of an individual in the vicinity of the eyes; - an exponential moving average filter of the signal originating from the sensor, referred to as the raw signal; - an adder which is able to compute the difference between the filtered signal and the raw signal; - two comparators (K+, K-) which are able to compare the filtered signal with constants; - two multipliers which are able to multiply the result of the difference between the filtered signal and the raw signal by the result from each comparator; - an adder for adding the results from the two multipliers; - a differentiator for differentiating the signal thus obtained; - detection means for detecting, on the basis of the differentiated signal, whether the device is actually being worn on the head of the individual.
A wireless audio receiver, comprising: a mode selection interface for enabling a user to select one of a plurality of modes of the wireless audio receiver; a plurality of radio frequency ports each configured to receive a plurality of RF signals from a respective antenna, wherein each of the plurality of RF signals comprises one or more audio signals; and an antenna distribution module in communication with the plurality of RF ports, wherein the antenna distribution module is configured to: when in a first mode, route the plurality of RF signals to one or more of a plurality of downstream processing components; and when in a second mode, route a first subset of the plurality of RF signals to be output on a first subset of the plurality of RF ports and route a second subset of the plurality of RF signals to one or more of the plurality of downstream processing components. a mode selection interface for enabling a user to select one of a plurality of modes of the wireless audio receiver; a plurality of radio frequency ports each configured to receive a plurality of RF signals from a respective antenna, wherein each of the plurality of RF signals comprises one or more audio signals; and an antenna distribution module in communication with the plurality of RF ports, wherein the antenna distribution module is configured to: when in a first mode, route the plurality of RF signals to one or more of a plurality of downstream processing components; and when in a second mode, route a first subset of the plurality of RF signals to be output on a first subset of the plurality of RF ports and route a second subset of the plurality of RF signals to one or more of the plurality of downstream processing components. when in a first mode, route the plurality of RF signals to one or more of a plurality of downstream processing components; and when in a second mode, route a first subset of the plurality of RF signals to be output on a first subset of the plurality of RF ports and route a second subset of the plurality of RF signals to one or more of the plurality of downstream processing components.
Commercial vehicle body with a cargo space provided above a cargo space floor, an external beam being provided respectively on both sides of the cargo space floor extending in the longitudinal direction of the commercial vehicle body at a vertical distance from the cargo space floor, and the cargo space floor has fixing rails provided respectively with fastener receiving means which laterally bound the cargo space floor or are recessed therein, and with a load securing system having at least one load securing element which can be secured to at least one of the fastener receiving means of a fixing rail, a respective external beam in turn having a fastener receiving means for securing a load securing element extending from the fixing rail to the external beam so that this load securing element extends from the fixing rail to the external beam provided at a distance from the cargo space floor, characterised in that the load securing element can be secured to the fastener receiving means of the external beam by means of a locking element, the locking element being provided in the form of a clamping brake, and when the load securing element is fastened to the fixing rail, to the external beam, to a lockable middle rung and/or to the roof construction, the clamping brake is moved from a non-operating position into a braking operating position.
Separating device for separating a fastening element from a fastening element strip, having a receptacle, in which the fastening element is received, wherein the fastening element defines a fastening direction in which the fastening element is to be driven into a substrate, having a transport channel, which has an inlet opening and an outlet opening, for guided transport of the fastening element strip in a transport direction from the inlet opening to the outlet opening, wherein the transport channel has a separating section, in which the fastening element is separated in a separating direction from the fastening element strip, characterized in that the transport channel has a section that twists around the transport direction between the separating section and the outlet opening.
An apparatus comprising: a flexible substrate; and a first winding conductive trace formed over the flexible substrate, the first winding conductive trace including a first sub-trace and a second sub-trace that is symmetric to the first sub-trace, the first sub-trace and the second sub-trace disposed in a mirrored shape and each including a plurality of alternating crests (805A; 805B) and troughs (807A; 807B) that each have a convex edge (806A; 806B) and a concave edge (812A, 812C; 812B) which is positioned opposite the convex edge at the corresponding crest or trough, the first sub-trace and the second sub-trace splitting from the first winding conductive trace and merging back together at a plurality of joints, each joint located at a trough of the first sub-trace and a crest of the second sub-trace; wherein a first portion of the first sub-trace located between each alternating crest and trough of the first sub-trace is smaller in width than a second portion of the first sub-trace located between the convex edge and the concave edge of each of the crests and troughs of the first sub-trace, and wherein a first portion of the second sub-trace located between each alternating crest and trough of the second sub-trace is smaller in width than a second portion of the second sub-trace located between the convex edge and the concave edge of each of the crests and troughs of the second sub-trace. a flexible substrate; and a first winding conductive trace formed over the flexible substrate, the first winding conductive trace including a first sub-trace and a second sub-trace that is symmetric to the first sub-trace, the first sub-trace and the second sub-trace disposed in a mirrored shape and each including a plurality of alternating crests (805A; 805B) and troughs (807A; 807B) that each have a convex edge (806A; 806B) and a concave edge (812A, 812C; 812B) which is positioned opposite the convex edge at the corresponding crest or trough, the first sub-trace and the second sub-trace splitting from the first winding conductive trace and merging back together at a plurality of joints, each joint located at a trough of the first sub-trace and a crest of the second sub-trace; wherein a first portion of the first sub-trace located between each alternating crest and trough of the first sub-trace is smaller in width than a second portion of the first sub-trace located between the convex edge and the concave edge of each of the crests and troughs of the first sub-trace, and wherein a first portion of the second sub-trace located between each alternating crest and trough of the second sub-trace is smaller in width than a second portion of the second sub-trace located between the convex edge and the concave edge of each of the crests and troughs of the second sub-trace.
A hardware accelerator comprising: one or more sparse tiles (112A-112N) configured to execute a first set of operations for a k-means clustering task involving a matrix, each of the sparse tiles (112A-112N) comprising a first plurality of processing units (506A-506Z) configured to operate upon a first plurality of sparse blocks of the matrix that have been streamed to one or more random access memories of the one or more sparse tiles (112A-112N) over a high bandwidth interface from a first memory unit (116A-116M); and one or more very/hyper sparse tiles (114A-114N) configured to execute a second set of operations for the k-means clustering task involving the matrix, each of the very/hyper sparse tiles (114A-114N) comprising a second plurality of processing units (506A-506Z) configured to operate upon a second plurality of very/hyper sparse blocks of the matrix, characterized in that said very/hyper sparse blocks of the matrix have been randomly accessed over a low-latency interface from a second off-tile memory unit (118A-118M) adapted for low latency, parallel, short, irregular accesses. one or more sparse tiles (112A-112N) configured to execute a first set of operations for a k-means clustering task involving a matrix, each of the sparse tiles (112A-112N) comprising a first plurality of processing units (506A-506Z) configured to operate upon a first plurality of sparse blocks of the matrix that have been streamed to one or more random access memories of the one or more sparse tiles (112A-112N) over a high bandwidth interface from a first memory unit (116A-116M); and one or more very/hyper sparse tiles (114A-114N) configured to execute a second set of operations for the k-means clustering task involving the matrix, each of the very/hyper sparse tiles (114A-114N) comprising a second plurality of processing units (506A-506Z) configured to operate upon a second plurality of very/hyper sparse blocks of the matrix, characterized in that said very/hyper sparse blocks of the matrix have been randomly accessed over a low-latency interface from a second off-tile memory unit (118A-118M) adapted for low latency, parallel, short, irregular accesses.
A method of refining raffinate-2 comprising: feeding a raffinate-2 containing n-butane, isobutane, and 1-butene to a first distillation column; obtaining heavy raffinate-3 containing n-butane from a lower part of the first distillation column; recovering an upper part fraction containing 1-butene from an upper part of the first distillation column; feeding the upper part fraction containing 1-butene to a second distillation column; and recovering a first lower part fraction rich in 1-butene from a lower part of the second distillation column and a light raffinate-3 containing isobutane from an upper part of the second distillation column, wherein heat of the upper part fraction recovered from the upper part of the first distillation column is fed to the lower part of the second distillation column through a first heat exchanger; wherein the raffinate-2 fed to the first distillation column contains isobutene and 1-butene at a weight ratio (isobutene/1-butene) of 0.006 or less; wherein an operating pressure of the second distillation column is 4.7 kgf/cm 2 or more, wherein an operating pressure of the first distillation column is higher than an operating pressure of the second distillation column by 3.5 kgf/cm 2 or more. feeding a raffinate-2 containing n-butane, isobutane, and 1-butene to a first distillation column; obtaining heavy raffinate-3 containing n-butane from a lower part of the first distillation column; recovering an upper part fraction containing 1-butene from an upper part of the first distillation column; feeding the upper part fraction containing 1-butene to a second distillation column; and recovering a first lower part fraction rich in 1-butene from a lower part of the second distillation column and a light raffinate-3 containing isobutane from an upper part of the second distillation column, wherein heat of the upper part fraction recovered from the upper part of the first distillation column is fed to the lower part of the second distillation column through a first heat exchanger; wherein the raffinate-2 fed to the first distillation column contains isobutene and 1-butene at a weight ratio (isobutene/1-butene) of 0.006 or less; wherein an operating pressure of the second distillation column is 4.7 kgf/cm 2 or more, wherein an operating pressure of the first distillation column is higher than an operating pressure of the second distillation column by 3.5 kgf/cm 2 or more.
An aerosol generating device comprising: a multilayered thermally conductive member (15, 300) forming an accommodation space into which an aerosol generating article is configured to be inserted; a heater surrounding the multilayered thermally conductive member (15, 300); a battery configured to supply power to the heater; and a controller configured to control power supplied from the battery to the heater such that the multilayered thermally conductive member (15, 300) transfers heat from the heater to the aerosol generating article, wherein the multilayered thermally conductive member (15, 300) comprises at least two layers, wherein the at least two layers comprise a layer (310, 330) including a corrosion-resistant material, and a layer including a thermally conductive material. a multilayered thermally conductive member (15, 300) forming an accommodation space into which an aerosol generating article is configured to be inserted; a heater surrounding the multilayered thermally conductive member (15, 300); a battery configured to supply power to the heater; and a controller configured to control power supplied from the battery to the heater such that the multilayered thermally conductive member (15, 300) transfers heat from the heater to the aerosol generating article, wherein the multilayered thermally conductive member (15, 300) comprises at least two layers, wherein the at least two layers comprise a layer (310, 330) including a corrosion-resistant material, and a layer including a thermally conductive material.
A method of assessing fluid flow in a conduit (33a, 33b, 33c), the fluid comprising hydrocarbons, the method comprising the steps of: (a) measuring optical variances resulting from at least one circumferential mode of vibration of the conduit (33a, 33b, 33c) by directing a monochromatic light source onto an external surface of the conduit detecting a passive light signal to provide a measured vibration of the conduit (33a, 33b, 33c) as a result of fluid flow in the conduit (33a, 33b, 33c); (b) processing the passive light signal to convert it into the frequency domain; (c) producing a graphical output including a series of spikes of amplitude frequency occurring at natural frequencies which represent the modes of circumferential vibration; and (d) assessing the fluid flow in the conduit (33a, 33b, 33c) using the measured vibration of the conduit resulting from at least one circumferential mode of vibration and based on said graphical output. (a) measuring optical variances resulting from at least one circumferential mode of vibration of the conduit (33a, 33b, 33c) by directing a monochromatic light source onto an external surface of the conduit detecting a passive light signal to provide a measured vibration of the conduit (33a, 33b, 33c) as a result of fluid flow in the conduit (33a, 33b, 33c); (b) processing the passive light signal to convert it into the frequency domain; (c) producing a graphical output including a series of spikes of amplitude frequency occurring at natural frequencies which represent the modes of circumferential vibration; and (d) assessing the fluid flow in the conduit (33a, 33b, 33c) using the measured vibration of the conduit resulting from at least one circumferential mode of vibration and based on said graphical output.
Device for applying an axial force to a timepiece component, and for simultaneously measuring the axial distance between a reference and a surface of said component, in particular for fitting out a timepiece, said device comprising a support carrying at least one measuring body which comprises at least one measuring means arranged to axially measure the position of a said surface of a timepiece component, in an axial direction, which measuring means comprises a feeler-spindle in contact with a bearing and measuring point and aligned therewith in said axial direction, said device being a combined device for simultaneously applying a force and measuring the displacement of the surface to which this force is applied, said device comprising at least one control means which is arranged to be operated by a user or by an automated controller, in order to apply a characterised axial force to a said surface, which force is transmitted to said bearing and measuring point by at least one calibrated, axial resilient return means.