The present disclosure provides a process for preparing an electrode, the process comprising: (a) mixing an active material, and a conductive additive, optionally with a first binder to obtain a first mixture; (b) blending a fibrillating binder with the first mixture, followed by high shear mixing to obtain a second mixture; and (c) quenching the second mixture and calendering to obtain the electrode.

The present disclosure relates to a method for converting carbon dioxide into carbon monoxide comprising: producing atomic oxygen, providing carbon dioxide to be converted, mixing the carbon dioxide with the atomic oxygen within a mixing area such that the atomic oxygen can interact with the carbon dioxide for forming carbon monoxide within the mixing area through a first CO producing reaction: C0.sub.2+0.fwdarw.C0+02, supplying the atomic oxygen into the mixing area at a first supply rate and supplying the carbon dioxide into the mixing area at a second supply rate, defining the first supply rate and the second supply rate such that a ratio between the first supply rate and the second supply rate remains within a pre-defined lower and upper threshold, and extracting carbon monoxide from the mixing area. The present disclosure also relates to an apparatus for converting carbon dioxide into carbon monoxide.

A process for preparing a hop extract emulsion, at least comprising the steps of: Providing a hop extract, mixing the hop extract with water, wherein the mass ratio of water to hop extract is from 40:60 to 95:5 (water:hop extract), and homogenizing the resulting mixture using ultrasound, resulting in the hop extract emulsion; and the hop extract emulsion prepared according to the invention, beverages and foodstuffs prepared thereby, and corresponding uses.

A slurry homogenization process and a use thereof, including the following steps: performing a first pre-mixing operation on a main material, a first conductive agent, and a binder to obtain a first mixture; adding the first mixture into a first solvent, and sequentially performing a second pre-mixing operation and a first dispersing operation to obtain a second mixture; and adding a conductive slurry into the second mixture, sequentially performing a third pre-mixing operation and a second dispersing operation to obtain a third mixture, and performing a defoaming and cooling operation on the third mixture to obtain a homogenized slurry.

A method and system for mechanical activation of organic and/or inorganic substances and/or substance mixtures in chemical, pharmaceutical, food acceptable applications and/or in applications useful for building purposes, includes feeding of a substance and/or substance mixture to be activated through an inlet opening into a container which stores activation bodies, feeding a process gas stream into the container, wherein the process gas stream can support transportation of the substance and/or substance mixture to be activated, mechanically activating the substance and/or substance mixture in the container by a rotating apparatus, wherein at least one beating unit of the apparatus interacts with the activation bodies, discharging the substance and/or substance mixture activated by the activation bodies from the container through an outlet opening, wherein the substance and/or substance mixture dwells in the container for a predetermined dwell time.

A method for preparing a foamed sclerosant composition. One method includes introducing a liquid sclerosant composition into a foaming space of an interior of a container, the foaming space containing a mixing component having a magnetic part. Rotation of the mixing component is achieved by generating for a first holding time a rotating magnetic field at a first speed and after the first holding time generating for a second holding time the rotating magnetic field at a second speed greater than the first speed.

Disclosed is a mixed reactor and a method for preparing electrothermal film precursor solution based on the mixed reactor. The mixed reactor includes a reaction kettle body, a reflux condensation mechanism, and a multifunctional stirring mechanism. The reflux condensation mechanism includes a condensate tank, a condensing coil is wound around inside of the condensate tank, two ends of the condensing coil are horizontally arranged, and hermetically and rotatably installed on both sides of the condensate tank, the condensing coil is driven by a coil driving motor; the multifunctional stirring mechanism includes a stirring shaft and a plurality of stirring blades driven by the stirring shaft. The bottom of the stirring shaft is fixedly sleeved with an isolation sleeve. Buffer rubber gaskets are hermetically connected between the mounting parts and the installation holes. It can effectively improve the quality of products and the quality controllability during the product preparation process.

Disclosed are methods of manufacturing negative electrode slurry for all-solid-state batteries, negative electrodes manufactured by the methods, and all-solid-state batteries including the negative electrodes. The method of manufacturing a negative electrode slurry includes preparing a first mixture by mixing a negative electrode material with a binder solution that includes a solvent and a first binder, producing a dispersion by performing an ultrasonic dispersion treatment on the first mixture, and preparing a second mixture by adding a second binder to the dispersion.