Abstract: This invention relates to the technical field of harmonic elimination for ferromagnetic resonance for a voltage transformer (abbreviated as PT), in particular, to a harmonic elimination method for ferromagnetic resonance for an active resistance-matching voltage transformer based on PID-adjustment, including compiling a resistance matching algorithm; designing and building a harmonic elimination control system based on the PID control strategy; presetting an active resistance-matching strategy; designing an engineering scheme for placing resistors.

Abstract: The present invention discloses a resource recovery method and a resource recovery system of desulfurized ash. The resource recovery method comprises: washing desulfurized ash with water, and performing solid-liquid separation to obtain solid residues rich in calcium sulfite and calcium sulfate and a solution rich in calcium hydroxide; preparing the solution into desulfurized slurry; and roasting the solid residues under the action of a reducing agent to obtain flue gas rich in sulfur dioxide and residues rich in calcium oxide. Therefore, the recovery of sulfur and calcium in the desulfurized ash is realized, and no solid waste, liquid waste, gas waste, etc. are produced in the process.

Abstract: An airborne short message communication method, apparatus, device and system, and a readable storage medium. In the technical solution provided in the present invention, the method comprises: an airborne short message communication device acquiring a message control command; by means of the message control command, selecting a target message type from among selectable message types and determining a sending frequency; generating a target message corresponding to the target message type; and sending the target message according to the determined sending frequency. According to the technical solution provided in the present invention, the problems of delayed communication and large consumption caused by an unchanging message type and message sending frequency can be avoided, and in an emergency state, the message type and the message sending frequency can be changed, such that an important message can be sent in a timely manner.

Abstract: This invention relates to the technical field of harmonic elimination for ferromagnetic resonance for a voltage transformer (abbreviated as PT), in particular, to a harmonic elimination method for ferromagnetic resonance for an active resistance-matching voltage transformer based on PID-adjustment, including compiling a resistance matching algorithm; designing and building a harmonic elimination control system based on the PID control strategy; presetting an active resistance-matching strategy; designing an engineering scheme for placing resistors.

Abstract: Provided herein is a method of using threonate to alter cellular physiology, such as neuronal physiology. A method of the present disclosure may include providing to a medium comprising a cell, a threonate-containing compound, or a precursor thereof, to increase the concentration of threonate in the medium, where the increased concentration of threonate is sufficient to increase the concentration of magnesium in the cell. Also provided is a method that includes administering a threonate-containing compound, or a precursor thereof, to an individual, to increase synaptic density in the brain and/or to treat a neurological disorder, e.g., cognitive impairment. The threonate-containing compound of the present disclosure does not include magnesium threonate.

Abstract: The present invention relates to fluorescent dyes in general. The present invention provides a wide range of fluorescent dyes and kits containing the same, which are applicable for labeling a variety of biomolecules, cells and microorganisms. The present invention also provides various methods of using the fluorescent dyes for research and development, forensic identification, environmental studies, diagnosis, prognosis, and/or treatment of disease conditions.

Abstract: Provided is a dosage form comprising magnesium threonate having enhanced efficacy. Also provided is a pharmacokinetic profile of magnesium threonate having enhanced efficacy. The dosage forms and pharmacokinetic profile of magnesium threonate are used to treat a variety of diseases, disorders, syndromes and/or conditions.

Abstract: Provided herein is a method of using threonate to alter cellular physiology, such as neuronal physiology. A method of the present disclosure may include providing to a medium comprising a cell, a threonate-containing compound, or a precursor thereof, to increase the concentration of threonate in the medium, where the increased concentration of threonate is sufficient to increase the concentration of magnesium in the cell. Also provided is a method that includes administering a threonate-containing compound, or a precursor thereof, to an individual, to increase synaptic density in the brain and/or to treat a neurological disorder, e.g., cognitive impairment. The threonate-containing compound of the present disclosure does not include magnesium threonate.

Abstract: Provided herein is a method of using threonate to alter cellular physiology, such as neuronal physiology. A method of the present disclosure may include providing to a medium comprising a cell, a threonate-containing compound, or a precursor thereof, to increase the concentration of threonate in the medium, where the increased concentration of threonate is sufficient to increase the concentration of magnesium in the cell. Also provided is a method that includes administering a threonate-containing compound, or a precursor thereof, to an individual, to increase synaptic density in the brain and/or to treat a neurological disorder, e.g., cognitive impairment. The threonate-containing compound of the present disclosure does not include magnesium threonate.

Abstract: The present invention provides a method of administering magnesium threonate to a subject in need of supplementing magnesium. At least a portion of magnesium (Mg) and threonate (T) is present in a salt form of MgT2. The method may comprise administration of magnesium threonate at two different time points per day. The method may comprise administering, at a first time point, a first oral dosage form comprising magnesium threonate. The method may comprise administering, at a second time point, a combination of the first oral dosage form and a second oral dosage form comprising magnesium threonate. The first and second oral dosage forms may exhibit different dissolution profiles in a dissolution medium.

Abstract: Provided herein is a method of using threonate to alter cellular physiology, such as neuronal physiology. A method of the present disclosure may include providing to a medium comprising a cell, a threonate-containing compound, or a precursor thereof, to increase the concentration of threonate in the medium, where the increased concentration of threonate is sufficient to increase the concentration of magnesium in the cell. Also provided is a method that includes administering a threonate-containing compound, or a precursor thereof, to an individual, to increase synaptic density in the brain and/or to treat a neurological disorder, e.g., cognitive impairment. The threonate-containing compound of the present disclosure does not include magnesium threonate.

Abstract: A protective case for smart watch may include a main body disposed around a smart watch to provide the elastic protection effect. The main body formed in a frame shape has two connecting edges, a controlling edge, and an audio edge, which are formed with the same thickness. The two connecting edges are formed in parallel, and each of the connecting edges has an engaging slot to couple with the watch strap of the smart watch. An audio recess concavely formed on an inner surface of the audio edge is configured to couple with a lateral side of the smart watch. The audio recess has a bottom portion communicated with the location of the speaker of the smart watch, and the audio recess is extended to the display of the smart watch to form a top opening.

Abstract: Provided herein is a method of using threonate to alter cellular physiology, such as neuronal physiology. A method of the present disclosure may include providing to a medium comprising a cell, a threonate-containing compound, or a precursor thereof, to increase the concentration of threonate in the medium, where the increased concentration of threonate is sufficient to increase the concentration of magnesium in the cell. Also provided is a method that includes administering a threonate-containing compound, or a precursor thereof, to an individual, to increase synaptic density in the brain and/or to treat a neurological disorder, e.g., cognitive impairment. The threonate-containing compound of the present disclosure does not include magnesium threonate.

Abstract: Provided herein are methods, compositions and kits for labeling of target proteins such as antibodies. The methods, compositions and kits are suited for labeling of such proteins that are mixed with other non-target molecules including BSA, gelatin, and other complex biological molecules.

Abstract: The present invention provides methods, compositions, and kits useful in preparing labeled molecules, which are useful in the detection of binding partners.

Abstract: A composition for administration to a subject, such as oral administration to a subject, for example, has been provided. Such a composition may comprise at least one magnesium-counter ion compound. A magnesium-counter ion composition described herein may be useful for any of a variety of applications provided herein, such as maintaining, enhancing, and/or improving health, nutrition, and/or another condition of a subject, and/or cognitive, learning, and/or memory function. A magnesium-counter ion composition provided herein may be useful for administration to a subject presenting magnesium deficiency, mild cognitive impairment, Alzheimer's disease, attention deficit hyperactivity disorder, ALS, Parkinson's disease, diabetes, migraine, anxiety disorder, mood disorder, and/or hypertension. A kit, method, and other associated technology are also provided.

Abstract: Provided herein is a method of using threonate to alter cellular physiology, such as neuronal physiology. A method of the present disclosure may include providing to a medium comprising a cell, a threonate-containing compound, or a precursor thereof, to increase the concentration of threonate in the medium, where the increased concentration of threonate is sufficient to increase the concentration of magnesium in the cell. Also provided is a method that includes administering a threonate-containing compound, or a precursor thereof, to an individual, to increase synaptic density in the brain and/or to treat a neurological disorder, e.g., cognitive impairment. The threonate-containing compound of the present disclosure does not include magnesium threonate.

Abstract: The present invention provides methods, compositions, and kits useful in preparing labeled molecules, which are useful in the detection of binding partners.

Abstract: Disclosed are benzoheterocyclic alkylamine compounds, or a pharmaceutically acceptable salt thereof, or a stereoisomer thereof, and a preparation method thereof, and use of the same in the manufacture of an antibacterial drug as an inhibitor of staphyloxanthin synthesis in Staphylococcus aureus.

Abstract: The present invention provides a method of administering magnesium threonate to a subject in need of supplementing magnesium. At least a portion of magnesium (Mg) and threonate (T) is present in a salt form of MgT2. The method may comprise administration of magnesium threonate at two different time points per day. The method may comprise administering, at a first time point, a first oral dosage form comprising magnesium threonate. The method may comprise administering, at a second time point, a combination of the first oral dosage form and a second oral dosage form comprising magnesium threonate. The first and second oral dosage forms may exhibit different dissolution profiles in a dissolution medium.