mhurhangee/ep-ind-claims huggingface dataset:
A method of generating a haptic effect on a touch screen or a capacitive button, said method comprising: generating an AC driving signal to cause a linear resonant actuator to vibrate during a drive period to generate said haptic effect, and controlling said AC driving signal to vary its frequency over course of said drive period, characterized in that said drive period comprises a first time segment during which the frequency of said AC driving signal is held substantially constant to a first frequency value lower than a resonant frequency of said linear resonant actuator, a second time segment during which the frequency of said AC driving signal is held substantially constant to a second frequency value approximately equal to said resonant frequency, and a third time segment during which the frequency of the AC driving signal is controlled to decrease from a third frequency value lower than said first frequency value to a fourth frequency value lower than said third frequency value. generating an AC driving signal to cause a linear resonant actuator to vibrate during a drive period to generate said haptic effect, and controlling said AC driving signal to vary its frequency over course of said drive period, characterized in that said drive period comprises a first time segment during which the frequency of said AC driving signal is held substantially constant to a first frequency value lower than a resonant frequency of said linear resonant actuator, a second time segment during which the frequency of said AC driving signal is held substantially constant to a second frequency value approximately equal to said resonant frequency, and a third time segment during which the frequency of the AC driving signal is controlled to decrease from a third frequency value lower than said first frequency value to a fourth frequency value lower than said third frequency value.
A computer-implemented method of controlling a first renewable energy power plant using a respective power plant controller, wherein the first renewable energy power plant comprises a plurality of wind turbine generators, the method comprising operating the power plant controller to: determine power delivery of the first renewable energy power plant to a collector bus, wherein the step of determining power delivery of the first renewable energy power plant to the collector bus includes: measuring the power delivery of the first renewable energy power plant at a connection point of the first renewable energy power plant to a first transmission line that connects the first renewable energy power plant to the collector bus; and compensating for transmission line power loss on the first transmission line; receive data relating to power delivery from a second renewable energy power plant connected to the collector bus, wherein the second renewable energy power plant comprises a plurality of wind turbine generators; determine the combined power delivery of the first and second renewable energy power plants to the collector bus; estimate the transmission line power loss on a second transmission line between the collector bus and a power grid point of interconnection based on the combined power delivery; and regulate the power delivery from the first renewable energy power plant to compensate for the estimated transmission line power loss on the second transmission line. determine power delivery of the first renewable energy power plant to a collector bus, wherein the step of determining power delivery of the first renewable energy power plant to the collector bus includes: measuring the power delivery of the first renewable energy power plant at a connection point of the first renewable energy power plant to a first transmission line that connects the first renewable energy power plant to the collector bus; and compensating for transmission line power loss on the first transmission line; receive data relating to power delivery from a second renewable energy power plant connected to the collector bus, wherein the second renewable energy power plant comprises a plurality of wind turbine generators; determine the combined power delivery of the first and second renewable energy power plants to the collector bus; estimate the transmission line power loss on a second transmission line between the collector bus and a power grid point of interconnection based on the combined power delivery; and regulate the power delivery from the first renewable energy power plant to compensate for the estimated transmission line power loss on the second transmission line.
Device for contactless distance and/or position determination of a measurement object, having an electrically conductive measurement object and a sensor which operates in particular in accordance with the inductive, capacitive or eddy current principle, wherein the sensor has a measurement device, wherein the measurement object when viewed in an axial direction is arranged opposite the measurement device on a movable object or is an integral component of the movable object and moves therewith in an axial direction, characterised in that the measurement device is formed by at least two measurement elements (5, 5', 5") which are spatially separated from each other, in that the measurement elements (5, 5', 5'') are arranged on a common substrate and in that the substrate has a passage for the movable object.
A method for transmitting an uplink multi-user frame with frequency diversity, the method comprising: receiving, by a communicating device, scheduling information including a frequency diversity indication indicating usage of frequency diversity in a scheduled transmission; determining, by the communicating device, a first frequency resource and a second frequency resource in accordance with the scheduling information; transmitting, by the communicating device, a first preamble and a first portion of a data payload of the frame over the first frequency resource and a second preamble and a second portion of the data payload of the frame over the second frequency resource; and determining, by the communicating device, a starting time in accordance with the scheduling information, wherein transmission of the second preamble followed by the second portion of the data payload begins at the starting time and transmission of the first preamble and the first portion of data payload over the first frequency resource ends at the starting time. receiving, by a communicating device, scheduling information including a frequency diversity indication indicating usage of frequency diversity in a scheduled transmission; determining, by the communicating device, a first frequency resource and a second frequency resource in accordance with the scheduling information; transmitting, by the communicating device, a first preamble and a first portion of a data payload of the frame over the first frequency resource and a second preamble and a second portion of the data payload of the frame over the second frequency resource; and determining, by the communicating device, a starting time in accordance with the scheduling information, wherein transmission of the second preamble followed by the second portion of the data payload begins at the starting time and transmission of the first preamble and the first portion of data payload over the first frequency resource ends at the starting time.
Pharmaceutical composition comprising a mixture consisting of methyl sulfonyl methane and at least one compound belonging to the class of 4-alkyl-cyclohexanols, wherein said at least one compound belonging to the class of 4-alkyl-cyclohexanols is 4-t-butyl-cyclohexanol.
An extruded lens for distributing the radiation emitted by a plurality of LEDs, wherein said extruded lens defines a longitudinal extension lens axis (X-X), and wherein said extruded lens comprises: an inlet surface of the radiation which can face said plurality of LEDs; an outlet surface of the radiation from said extruded lens; a transverse lens section, transverse to said longitudinal extension lens axis (X-X); wherein said transverse lens section is a section with an asymmetrical shape; said transverse lens section comprises a radiation inlet edge; said radiation inlet edge comprises at least one plurality of first rectilinear portions (8, 9, 10, 11, 12); and said radiation inlet edge is a concave edge; said transverse lens section comprises a radiation outlet edge; said radiation outlet edge comprises at least one first arc of circumference and at least one second rectilinear portion [par.52] and said radiation outlet edge comprises a second arc of circumference [par.55] and said second arc of circumference is adjacent to said first arc of circumference characterized in that said radiation outlet edge is a convex edge, and in that said extruded lens is obtained by co-extruding two different materials; and wherein said extruded lens comprises a co-extruded matted outer layer for diffusing the light radiation at least partially forming said outlet surface, wherein said co-extruded matted outer layer seamlessly extends to form at least one inlet surface portion of said inlet surface. an inlet surface of the radiation which can face said plurality of LEDs; an outlet surface of the radiation from said extruded lens; a transverse lens section, transverse to said longitudinal extension lens axis (X-X); wherein said transverse lens section is a section with an asymmetrical shape; said transverse lens section comprises a radiation inlet edge; said radiation inlet edge comprises at least one plurality of first rectilinear portions (8, 9, 10, 11, 12); and said radiation inlet edge is a concave edge; said transverse lens section comprises a radiation outlet edge; said radiation outlet edge comprises at least one first arc of circumference and at least one second rectilinear portion [par.52] and said radiation outlet edge comprises a second arc of circumference [par.55] and said second arc of circumference is adjacent to said first arc of circumference characterized in that said radiation outlet edge is a convex edge, and in that said extruded lens is obtained by co-extruding two different materials; and wherein said extruded lens comprises a co-extruded matted outer layer for diffusing the light radiation at least partially forming said outlet surface, wherein said co-extruded matted outer layer seamlessly extends to form at least one inlet surface portion of said inlet surface.
A warp knitting machine with at least one spring arrangement, which is a component of a yarn tension compensation device, wherein the spring arrangement has at least one elastic moulded body, which has a greatest extent in one direction, and a cavity arrangement, which is arranged along the greatest extent, and is acted upon by a fluid, wherein at least one control variable of the fluid can be altered externally, characterised in that, by the alteration in the control variable of the fluid in the cavity arrangement the natural bending frequency of the moulded body can be altered. the spring arrangement has at least one elastic moulded body, which has a greatest extent in one direction, and a cavity arrangement, which is arranged along the greatest extent, and is acted upon by a fluid, wherein at least one control variable of the fluid can be altered externally, characterised in that, by the alteration in the control variable of the fluid in the cavity arrangement the natural bending frequency of the moulded body can be altered.
Work tool for driving a fastening element into a surface, with a guide channel for the fastening element, with a piston, which for transferring energy onto the fastening element arranged in the guide channel is to be driven from a starting position, in which the piston is at rest, onto the fastening element, with a feed device for transporting the fastening element into the guide channel, and with a feed delaying device for delaying transport of the fastening element into the guide channel, until the piston has gone back into the starting position after a driving procedure, characterised in that the feed delaying device has a releasing position, in which it allows transport of the fastening element into the guide channel, if the piston is arranged in the starting position, and a locking position, in which it blocks transport of the fastening element into the guide channel, if the piston is arranged outside the starting position.
Respiratory device comprising at least one pump device, wherein the pump device has at least one pump chamber and a rotor arranged in the pump chamber for each pump chamber, wherein the at least one pump chamber has an inlet and an outlet, wherein a fluid can flow into the pump chamber via the inlet and out of the pump chamber via the outlet, wherein the inlet and the outlet are connected to the pump chamber via a common channel and wherein the inlet is separated from the outlet by a separating element arranged in the channel and wherein the rotor can be driven on an orbital path within the pump chamber and the shape of the rotor and the shape of the pump chamber are designed and matched to one another, that by the movement of the rotor in the pump chamber at a constant speed an approximately sinusoidal course of the flow of the fluid flowing out of the outlet is realized, wherein this has two pump chambers (2', 2") and per pump chamber (2', 2") a rotor (4', 4") is arranged in the pump chamber (2', 2"), wherein the rotors (4', 4") are arranged in the pump chambers (2', 2") 180° out of phase with one another, characterized in that the pump chambers (2', 2") have a common outlet, so that the approximately sinusoidal flows which can be generated with the aid of the two pump chambers (2', 2") and rotors (4', 4") in each case produce a cumulative, virtually constant total volumetric flow.
A method for the preparation of a sample comprising highly polarized nuclear spins, said method comprising: (i) providing a sample comprising an organic or inorganic material, containing H or OH groups or adsorbed water molecules, in the form of a powdery solid, in a sealed vessel having an initial pressure; (ii) generating unstable radicals in said sample by either (a) electrical ionization of the gas environment in said vessel, or (b) subjecting said sample to ionizing radiation with an energy not less than 25 eV, wherein said unstable radicals are fixed to the solid, so that their decay is slowed down; (iii) cooling said sample to a cryogenic temperature; and (iv) performing dynamic nuclear polarization process on the cooled sample so as to transfer spin polarization from the electron spins to the nuclear spins, thereby obtaining said sample comprising highly polarized nuclear spins. (i) providing a sample comprising an organic or inorganic material, containing H or OH groups or adsorbed water molecules, in the form of a powdery solid, in a sealed vessel having an initial pressure; (ii) generating unstable radicals in said sample by either (a) electrical ionization of the gas environment in said vessel, or (b) subjecting said sample to ionizing radiation with an energy not less than 25 eV, wherein said unstable radicals are fixed to the solid, so that their decay is slowed down; (iii) cooling said sample to a cryogenic temperature; and (iv) performing dynamic nuclear polarization process on the cooled sample so as to transfer spin polarization from the electron spins to the nuclear spins, thereby obtaining said sample comprising highly polarized nuclear spins.
A method of extracting a solution comprising a biological element from a single microcavity in a microcavity array, wherein each microcavity is associated with an electromagnetic radiation absorbent material, the method comprising, focusing electromagnetic radiation at the microcavity to generate heating or expansion of the material that expels at least part of the solution from the microcavity.
A folding case, that contains: - two short sides, - two long sides, - a base, - hinge base profiles on the sides of the base, with female hinge housings located on them, over female hinges, - male hinges located on the lower part of the short sides and long sides, corresponding to the female hinge housings, such that the female hinges and the male hinges connect the base to the long sides and to the short sides, - a load bearing column located on a short side, - a safety wall located on the hinge base profile, - a safety housing located on a long side and in which the safety wall slides, - a protrusion located at the bottom of the base, - a locking system located at the intersection of a short side and a long side, where the locking system comprises the load bearing column, lock pockets on the upper lateral part of the long side, a female lock housing located between the lock pockets, lock jacket beams located on the upper lateral part of the short side, a male horizontal lock located between the lock jacket beams, which slides into the female lock housing, characterized in that the folding case comprises a lock protection wall located on the sides of the long sides and covering them like a curtain, where the lock protection wall encases the lock system and protects it from collapsing under heavy loads. - two short sides, - two long sides, - a base, - hinge base profiles on the sides of the base, with female hinge housings located on them, over female hinges, - male hinges located on the lower part of the short sides and long sides, corresponding to the female hinge housings, such that the female hinges and the male hinges connect the base to the long sides and to the short sides, - a load bearing column located on a short side, - a safety wall located on the hinge base profile, - a safety housing located on a long side and in which the safety wall slides, - a protrusion located at the bottom of the base, - a locking system located at the intersection of a short side and a long side, where the locking system comprises the load bearing column, lock pockets on the upper lateral part of the long side, a female lock housing located between the lock pockets, lock jacket beams located on the upper lateral part of the short side, a male horizontal lock located between the lock jacket beams, which slides into the female lock housing, characterized in that the folding case comprises a lock protection wall located on the sides of the long sides and covering them like a curtain, where the lock protection wall encases the lock system and protects it from collapsing under heavy loads.
A method for manufacturing a wire harness, the wire harness being mounted on a vehicle body to supply electric power and to transmit a communication signal to an electric component, the wire harness having: a plurality of control boxes dispersedly arranged on the wire harness and configured to be able to control input and output of at least one of the electric power and the communication signal; a trunk harness connecting one of the plurality of the control boxes to another control box; and a branch harness connecting the control box to the electric component, the manufacturing method comprising: disposing the trunk harness, the branch harness and the control boxes on a workbench and attaching the trunk harness and the branch harness to the control boxes; connecting the control boxes to an external device via the branch harness; and switching operation mode of at least one of the control boxes to an information writing mode for inputting information for operating the electric component to be connected to the branch harness into the at least one of the control boxes, and then inputting the information from the external device into the at least one of the control boxes via the branch harness. a plurality of control boxes dispersedly arranged on the wire harness and configured to be able to control input and output of at least one of the electric power and the communication signal; a trunk harness connecting one of the plurality of the control boxes to another control box; and a branch harness connecting the control box to the electric component, the manufacturing method comprising: disposing the trunk harness, the branch harness and the control boxes on a workbench and attaching the trunk harness and the branch harness to the control boxes; connecting the control boxes to an external device via the branch harness; and switching operation mode of at least one of the control boxes to an information writing mode for inputting information for operating the electric component to be connected to the branch harness into the at least one of the control boxes, and then inputting the information from the external device into the at least one of the control boxes via the branch harness. disposing the trunk harness, the branch harness and the control boxes on a workbench and attaching the trunk harness and the branch harness to the control boxes; connecting the control boxes to an external device via the branch harness; and switching operation mode of at least one of the control boxes to an information writing mode for inputting information for operating the electric component to be connected to the branch harness into the at least one of the control boxes, and then inputting the information from the external device into the at least one of the control boxes via the branch harness.
Use of an organic mesomeric compound as organic dopant for doping of an organic semiconductive matrix material, characterised in that the mesomeric compound is an oxocarbon compound, pseudooxocarbon compound or radialene compound of the following formula: wherein n = 1-4; each X 1, X 2 and X 3 is selected independently from the group consisting of C 2, (CF 3)C, (NO 2)C, C(halogen) 2, C(CF 3) 2, NCN, O, S, NR 1, wherein X 4 and X 5 case are selected independently from the group consisting of C 2, (CF 3)C, (NO 2)C, C(halogen) 2, C(CF 3) 2, NCN, O, S, NR 1, wherein Y = CN, NO 2, COR 1 or perhalogenated alkyl; aryl or Ar is a substituted or unsubstituted aromatic hydrocarbon or biaryl, possibly polycyclic; hetaryl is a substituted or unsubstituted aromatic heterocyclic compound or biheteroaryl, preferably electron-poor, possibly polynuclear or partially or completely hydrogenated and/or fluorinated; and R 1 -R 8 are independently selected from hydrogen, halogen, CN, NO 2, COR 1, alkyl, alkoxy, aryl and heteroaryl, and the molar doping ratio of dopant to matrix molecule or the doping ratio of dopant to monomer units of a polymer matrix molecule is between 1:5 and 1:100,000. wherein X 4 and X 5 case are selected independently from the group consisting of C 2, (CF 3)C, (NO 2)C, C(halogen) 2, C(CF 3) 2, NCN, O, S, NR 1, wherein Y = CN, NO 2, COR 1 or perhalogenated alkyl; aryl or Ar is a substituted or unsubstituted aromatic hydrocarbon or biaryl, possibly polycyclic; hetaryl is a substituted or unsubstituted aromatic heterocyclic compound or biheteroaryl, preferably electron-poor, possibly polynuclear or partially or completely hydrogenated and/or fluorinated; and R 1 -R 8 are independently selected from hydrogen, halogen, CN, NO 2, COR 1, alkyl, alkoxy, aryl and heteroaryl, and the molar doping ratio of dopant to matrix molecule or the doping ratio of dopant to monomer units of a polymer matrix molecule is between 1:5 and 1:100,000.