mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of generating an indication of muscle fatigue of a mammal wearing a fiber of an electrically conductive polymer material over a muscle having muscle fibers, the fiber extending along a fiber path having a length and a width, the length of the fiber path extending along a length of the fibers of the muscle, the method comprising: the muscle deforming the fiber path including activating a joint of the mammal; circulating electricity along the fiber, along the length of the fiber path; generating a movement signal including monitoring a change of impedance of the fiber stemming from the deformation of the muscle path during said deformation of the fiber path; determining a coefficient of correlation value of successive portions of the movement signal associated to corresponding, successive, time windows, including ascertaining a degree of similitude between the corresponding portion and a corresponding movement template; generating an indication of muscle fatigue based on said coefficient of correlation values, wherein the indication of muscle fatigue is a first indication of muscle fatigue, a portion of the fiber forming a first electrode extends transversally relative to the length of the muscle fibers, with the first electrode maintained into electrical contact with the skin, and a second electrode maintained into electrical contact with the skin, the method further comprising acquiring a sEMG signal from the first electrode and the second electrode, during said deformation of the fiber path, measuring a sEMG power spectrum median frequency value of successive portions of a sEMG signal within corresponding ones of the time windows and generating a second indication of muscle fatigue contingent upon said sEMG power spectrum median frequency value falling below a threshold median frequency value. the muscle deforming the fiber path including activating a joint of the mammal; circulating electricity along the fiber, along the length of the fiber path; generating a movement signal including monitoring a change of impedance of the fiber stemming from the deformation of the muscle path during said deformation of the fiber path; determining a coefficient of correlation value of successive portions of the movement signal associated to corresponding, successive, time windows, including ascertaining a degree of similitude between the corresponding portion and a corresponding movement template; generating an indication of muscle fatigue based on said coefficient of correlation values, wherein the indication of muscle fatigue is a first indication of muscle fatigue, a portion of the fiber forming a first electrode extends transversally relative to the length of the muscle fibers, with the first electrode maintained into electrical contact with the skin, and a second electrode maintained into electrical contact with the skin,
A transverse flux electric induction coil for inductively heating a planarly oriented electrically conductive workpiece, the transverse flux electric induction coil comprising: a fixed planar coil section formed from at least a pair of fixed transverse sections co-planarly spaced apart from each other, the pair of fixed transverse sections joined together near each adjacent opposing end (12b', 12b") by a fixed bridge section to form at least one turn coil, the fixed planar coil section configured for connection to an alternating current power source to create an alternating magnetic flux field around the fixed planar coil section; and at least one box-like moveable coil section electrically isolated from, and slidably connected by mechanical connection to, at least one end of the fixed planar coil section while being closely electromagnetically coupled with the alternating magnetic flux field at least around the fixed bridge section, the at least one box-like moveable coil section comprising a three sided, open ended box with an opposing side sections joined by a bridge section and a slat section configured for a closed electrical path around the opposing side sections and moveably fitted within the fixed bridge section and configured for flux cancellation by opposing current flows through the fixed bridge section and the opposing side sections and slat section when the fixed planar section is connected to an alternating current source, the fixed planar coil section and the at least one box-like moveable coil section disposed above or below the planarly oriented electrically conductive material. a fixed planar coil section formed from at least a pair of fixed transverse sections co-planarly spaced apart from each other, the pair of fixed transverse sections joined together near each adjacent opposing end (12b', 12b") by a fixed bridge section to form at least one turn coil, the fixed planar coil section configured for connection to an alternating current power source to create an alternating magnetic flux field around the fixed planar coil section; and at least one box-like moveable coil section electrically isolated from, and slidably connected by mechanical connection to, at least one end of the fixed planar coil section while being closely electromagnetically coupled with the alternating magnetic flux field at least around the fixed bridge section, the at least one box-like moveable coil section comprising a three sided, open ended box with an opposing side sections joined by a bridge section and a slat section configured for a closed electrical path around the opposing side sections and moveably fitted within the fixed bridge section and configured for flux cancellation by opposing current flows through the fixed bridge section and the opposing side sections and slat section when the fixed planar section is connected to an alternating current source, the fixed planar coil section and the at least one box-like moveable coil section disposed above or below the planarly oriented electrically conductive material.
A method for reducing lateral root development by a plant relative to an untreated or wild-type plant, comprising contacting the root zone of said plant with at least one RAR or introducing at least one exogenous RAR-encoding nucleic acid into one or more plant cells which results in increased RAR expression by cells of a plant regenerated from or comprising said one or more plant cells, wherein said RAR is not an Arabidopsis thaliana CEP1 peptide and said RAR-encoding nucleic acid is not an Arabidopsis CEP1-encoding sequence, and wherein said RAR comprises an RAR domain comprising an amino acid sequence (X 1) n X 2 X 3 X 4 X 5 X 6 PGX 9 SPGX 13 GX 15 (SEQ ID NO: 459), wherein n may be 1 or 0. wherein said RAR is not an Arabidopsis thaliana CEP1 peptide and said RAR-encoding nucleic acid is not an Arabidopsis CEP1-encoding sequence, and wherein said RAR comprises an RAR domain comprising an amino acid sequence (X 1) n X 2 X 3 X 4 X 5 X 6 PGX 9 SPGX 13 GX 15 (SEQ ID NO: 459), wherein n may be 1 or 0.
A cooktop (1 a, 1 b), comprising: - a boundary element in the form of a cooktop platform frame (2a, 2b) which borders the cooktop (1 a, 1 b) at least on one side, and - a camera for recognition of operating gestures, characterized in that - the camera is arranged in a recess of the cooktop platform frame (2a, 2b). - a boundary element in the form of a cooktop platform frame (2a, 2b) which borders the cooktop (1 a, 1 b) at least on one side, and - a camera for recognition of operating gestures, - the camera is arranged in a recess of the cooktop platform frame (2a, 2b).
A cathode for hydrogen generation having a conductive base material and a catalyst layer formed on said conductive base material, wherein said catalyst layer comprises crystalline iridium oxide, platinum and iridium-platinum alloy wherein, in the X-ray diffraction measurement, said crystalline iridium oxide gives a diffraction peak which is observed in an angular region including 2θ = 34.70° and has a full width at half maximum of 0.47° or less.
A wire harness (9, 40, 50, 60) comprising: one or more electrically-conducting paths; a tubular shielding member configured to collectively accommodate the electrically-conducting paths; a braided shielding member (17, 18) including a cylindrical braided member and connected to an end of the tubular shielding member; and an annular crimping member (19, 41, 51, 61) including a fixing portion (28, 42, 52, 62) which fixedly connects the braided shielding member and the tubular shielding member by crimping, and a bent portion (29, 43, 53, 63) which is formed by bending an open end of the fixing portion to outside of the fixing portion, wherein the braided shielding member (17, 18) is disposed so as to surround an end of the electrically-conducting paths extending from the end (22, 23) of the tubular shielding member by connecting one end of the braided shielding member (17, 18) to the end (22, 23) of the tubular shielding member, crimping the crimping member at a position of the one end and then reversely folding-back the other end of the braided shielding member (17, 18) in the position crimped by the crimping member, and the bent portion is disposed on a side of the braided shielding member (17, 18) to be folded-back when crimping the crimping member. one or more electrically-conducting paths; a tubular shielding member configured to collectively accommodate the electrically-conducting paths; a braided shielding member (17, 18) including a cylindrical braided member and connected to an end of the tubular shielding member; and an annular crimping member (19, 41, 51, 61) including a fixing portion (28, 42, 52, 62) which fixedly connects the braided shielding member and the tubular shielding member by crimping, and a bent portion (29, 43, 53, 63) which is formed by bending an open end of the fixing portion to outside of the fixing portion, wherein the braided shielding member (17, 18) is disposed so as to surround an end of the electrically-conducting paths extending from the end (22, 23) of the tubular shielding member by connecting one end of the braided shielding member (17, 18) to the end (22, 23) of the tubular shielding member, crimping the crimping member at a position of the one end and then reversely folding-back the other end of the braided shielding member (17, 18) in the position crimped by the crimping member, and the bent portion is disposed on a side of the braided shielding member (17, 18) to be folded-back when crimping the crimping member.
Method for the layer-by-layer construction of a multi-layer or multi-ply polymer body, comprising a strength member, a polymeric base material and at least one sheet material, wherein the components are applied layer by layer to a cylindrically shaped tool, wherein a cutting unit having a cutting bar and having a blade which is linearly movable along the cutting bar extends in an axial direction over the width of the tool in the region of an outer partial circumference of the tool, wherein the method comprises at least the following steps: - rotating the cylindrically shaped tool in a circumferential direction about a concentric axis, - placing the strength member around the tool, - applying the polymeric base material around the rotating tool so as to form a joint, - applying the sheet material around the rotating tool, - moving the blade linearly along the cutting bar, such that the sheet material guided over the cutting bar is severed so as to form a joint, characterized in that, during the movement of the blade, the cutting unit is located with a centring wedge in positively locking engagement with at least one tooth recess of a radially internally situated toothing of the tool, such that the cutting unit is positioned relative to the tool. wherein the components are applied layer by layer to a cylindrically shaped tool, wherein a cutting unit having a cutting bar and having a blade which is linearly movable along the cutting bar extends in an axial direction over the width of the tool in the region of an outer partial circumference of the tool, wherein the method comprises at least the following steps: - rotating the cylindrically shaped tool in a circumferential direction about a concentric axis, - placing the strength member around the tool, - applying the polymeric base material around the rotating tool so as to form a joint, - applying the sheet material around the rotating tool, - moving the blade linearly along the cutting bar, such that the sheet material guided over the cutting bar is severed so as to form a joint, - rotating the cylindrically shaped tool in a circumferential direction about a concentric axis, - placing the strength member around the tool, - applying the polymeric base material around the rotating tool so as to form a joint, - applying the sheet material around the rotating tool, - moving the blade linearly along the cutting bar, such that the sheet material guided over the cutting bar is severed so as to form a joint, characterized in that, during the movement of the blade, the cutting unit is located with a centring wedge in positively locking engagement with at least one tooth recess of a radially internally situated toothing of the tool, such that the cutting unit is positioned relative to the tool.
A motor connectable to a single phase AC power supply (2, 3) and forming a hermetic compressor, the motor comprising a main circuit and an auxiliary circuit, the main circuit being connected in parallel with the auxiliary circuit, the motor further comprising a winding structure comprising a main winding arranged in the main circuit and an auxiliary winding arranged in the auxiliary circuit, the motor further comprising a rotor arranged to be rotated by a magnetic field generated in the winding structure, wherein - the auxiliary circuit comprises a first section and a second section, - the first and second section extend in an electrically parallel connection, - current in the first section is limited by a NTC, - the second section includes a PTC, and - a relay is arranged to activate and deactivate current in the first section of the auxiliary circuit without deactivating a current through the PTC in the second section, the relay being controlled by a current level in the main circuit, the motor further comprising a start capacitor, CS, serial with the auxiliary winding, CS being disconnected by the relay. - the auxiliary circuit comprises a first section and a second section, - the first and second section extend in an electrically parallel connection, - current in the first section is limited by a NTC, - the second section includes a PTC, and - a relay is arranged to activate and deactivate current in the first section of the auxiliary circuit without deactivating a current through the PTC in the second section, the relay being controlled by a current level in the main circuit,
Filter bag for a vacuum cleaner, with a filter material, in which an inlet opening is provided, and a mounting plate, which is arranged at the inlet opening and which can be mounted on a mounting device of a vacuum cleaner for mounting of the filter bag, wherein a closure device for closing the inlet opening is provided at the mounting plate, characterised in that the mounting plate is of two-part construction and the two parts are glued or welded together and at least one collar projecting into the interior space of the filter bag is provided at the mounting plate, by means of which collar the formation of a filter cake from the filter material towards the closure device is prevented.
Process for the production of ammonia comprising the steps (a) preparation of a gas mixture comprising hydrogen, nitrogen, water, methane, in some cases argon, carbon monoxide and carbon dioxide; (b) removal of at least a part of the water, at least a part of the methane, at least a part of the carbon monoxide, at least a part of the carbon dioxide, and at least a part of the argon from the gas mixture; (c) synthesis of ammonia from at least a part of the hydrogen and from at least a part of the nitrogen which is contained in the gas mixture; and removal of at least a part of the ammonia from the gas mixture by cooling; (d) compression of the gas mixture to a pressure which is higher than the pressure in step (c); (e) combination of the gas mixture with a recirculated gas mixture comprising hydrogen, nitrogen and ammonia and optionally the other components not completely removed in step (b); (f) synthesis of ammonia from at least a part of the hydrogen and from at least a part of the nitrogen which is contained in the gas mixture; removal of at least a part of the ammonia from the gas mixture by cooling; compression of the gas mixture to an elevated pressure; and return of the gas mixture as recirculated gas mixture to step (e). (a) preparation of a gas mixture comprising hydrogen, nitrogen, water, methane, in some cases argon, carbon monoxide and carbon dioxide; (b) removal of at least a part of the water, at least a part of the methane, at least a part of the carbon monoxide, at least a part of the carbon dioxide, and at least a part of the argon from the gas mixture; (c) synthesis of ammonia from at least a part of the hydrogen and from at least a part of the nitrogen which is contained in the gas mixture; and removal of at least a part of the ammonia from the gas mixture by cooling; (d) compression of the gas mixture to a pressure which is higher than the pressure in step (c); (e) combination of the gas mixture with a recirculated gas mixture comprising hydrogen, nitrogen and ammonia and optionally the other components not completely removed in step (b); (f) synthesis of ammonia from at least a part of the hydrogen and from at least a part of the nitrogen which is contained in the gas mixture; removal of at least a part of the ammonia from the gas mixture by cooling; compression of the gas mixture to an elevated pressure; and return of the gas mixture as recirculated gas mixture to step (e).
An acoustic treatment grid intended to be mounted inside or at the outlet of a duct of a bleed valve of a turbomachine of an aircraft intended to convey a gas flow, the grid comprising a perforated plate and circular holes traversing the perforated plate along a first direction (D A), the holes having a diameter and a geometrical center, the perforated plate comprising, with respect to the gas flow intended to traverse the perforated plate, an upstream face intended to receive the gas flow and a downstream face, opposite the upstream face, from which the gas flow is intended to escape, the grid being characterized in that each hole is separated from an adjacent orifice by a space, the length (e) of which is equal to the product of the diameter of said hole and a spacing coefficient of a value between 1.1 and 6 to minimize low-frequency noise, while ensuring the operability of the bleed valve, the length (e) separating two holes being measured between the geometrical centers of the two holes, and the grid further comprising a layer of porous material disposed on said downstream face of the perforated plate without covering the holes, the plate and the layer of porous material forming channels.
An electronic device, comprising: a display having a rectangular periphery; radio-frequency transceiver circuitry; a ground plane; a printed circuit board on which components are mounted, wherein the printed circuit board and components form at least part of the ground plane; a conductive structure that surrounds the rectangular periphery of the display characterized in that: the conductive structure has a gap along the periphery, and is electrically connected to the ground plane; and by a loop antenna formed around an opening from a portion of the conductive structure and a portion of the ground plane, wherein the portion of the conductive structure has the gap; an inductive element connected between said portion of the conductive structure adjacent the gap and said portion of the ground plane, the inductive element comprises a conductive segment that runs parallel to an edge of said portion of the ground plane and are separated therefrom by an opening, wherein the Segment and the associated ground form a transmission line with an associated inductance; wherein the antenna includes a first antenna feed terminal located on the conductive segment and a second antenna feed terminal located on said portion of the ground plane; and a transmission line coupled between the radio-frequency transceiver circuitry and the antenna feed terminals (58, 54). a display having a rectangular periphery; radio-frequency transceiver circuitry; a ground plane; the conductive structure has a gap along the periphery, and is electrically connected to the ground plane; and by a loop antenna formed around an opening from a portion of the conductive structure and a portion of the ground plane, wherein the portion of the conductive structure has the gap; an inductive element connected between said portion of the conductive structure adjacent the gap and said portion of the ground plane, the inductive element comprises a conductive segment that runs parallel to an edge of said portion of the ground plane and are separated therefrom by an opening, wherein the Segment and the associated ground form a transmission line with an associated inductance; wherein the antenna includes a first antenna feed terminal located on the conductive segment and a second antenna feed terminal located on said portion of the ground plane; and a transmission line coupled between the radio-frequency transceiver circuitry and the antenna feed terminals (58, 54).
A non-therapeutic method of inducing collagen synthesis in skeletal muscle in a mammal comprising orally administering to the mammal in need of such treatment a therapeutically effective amount of Shilajit, wherein the body of the mammal synthesizes new collagen and optionally one or more proteins selected from the group consisting of tenascin, decorin, elastin, myoferlin, fibrillin, and fibronectin; wherein the Shilajit comprises not less than 0.3% dibenzo-α-pyrones; not less than 10.0% dibenzo-α-pyrones conjugated with chromoproteins; not less than 50% of fulvic acids having a dibenzo-α-pyrone nucleus; less than 1 ppm of lead; less than 1 ppm of arsenic; and less than 0.1 ppm of mercury; and wherein the induction of collagen synthesis in skeletal muscle and the one or more proteins is increased synergistically with exercise.