35results about How to "Quantifiable production" patented technology

The invention provides a polymer electrolyte for a lithium ion battery and a preparation method, relating to the field of the electrolyte for the lithium ion battery. Specifically, the invention relates to the polymer electrolyte which is prepared by cross-linking and curing a silane terminal blocked polyether oligomer as a prepolymer, a conductive lithium salt as a lithium source, an organic solvent as a plasticizer and tin salt as a catalyst and application of the polymer electrolyte in the lithium ion polymer battery. The polymer electrolyte has the characteristics of polypropylene oxide (PEO) and silicone rubber and has excellent mechanical property, high / low temperature resistance stability, electrochemical stability, window stability and high ionic conductivity; the lithium ion battery still can work at 80 DEG C; the preparation condition and the process are simple and easy to control; the polymer electrolyte has excellent flexibility; the growth of cathode lithium dendrites can be effectively restrained; the interface stability of the lithium ion polymer battery is promoted; the polymer electrolyte is suitable for the flexible lithium ion polymer battery.

The invention discloses a method for preparing regenerated cellulose blended fibers of lotus leaf carbon nanomaterials, which is characterized in that it comprises the following preparation steps: (1) using lotus leaves as raw materials to prepare high-performance lotus leaf carbon nanomaterials; (2) Blending the lotus leaf carbon nanomaterial with the regenerated cellulose spinning solution; (3) spinning the blended spinning solution through wet spinning equipment, forming fibers through a coagulation bath, to prepare the lotus leaf carbon nanomaterial regeneration Cellulose blend fibers. The invention has abundant sources of raw materials, low cost, simple preparation process, no pollution, and can be produced quantitatively. The prepared regenerated cellulose blended fiber of lotus leaf carbon nanomaterial has good antibacterial, adsorption and deodorizing effects, compared with ordinary regenerated cellulose The added value is higher.

The invention relates to the preparation of a self-crosslinking composite solid electrolyte and an all-solid lithium ion battery formed thereof, and relates to the field of lithium ion battery electrolytes. Specifically, the terminal silane-terminated polyether (MS) is used as the prepolymer, and it is stirred and mixed with inorganic nanoparticles or organic polymer materials with acid and alkali, conductive lithium salt and organic solvent; through MS and with acid and alkali Composite solid electrolytes are prepared by self-crosslinking and solidifying of inorganic nanoparticles or organic polymer materials. Self-crosslinking composite curing of MS and inorganic nanoparticles or organic polymer materials with acid and alkalinity can reduce the crystallinity of the composite solid electrolyte and improve the ionic conductivity, ion migration number, mechanical properties, and electrochemical stability window of the composite solid electrolyte. and battery rate charge and discharge performance, to solve the problem of interface contact in solid-state lithium-ion batteries. Ionic conductivity up to 10 ‑4 Scm ‑1 , the electrochemical window is greater than 5V, the product shrinkage rate is small, and the electrochemical stability is strong.

The invention relates to preparation and application of an organic-inorganic composite solid-state electrolyte, and relates to the technical field of a lithium ion battery electrolyte. The organic-inorganic composite solid-state electrolyte is prepared by selecting an isocyanate compound having rigid characteristic, a flexible chain segment compound capable of complexing and dissociating with lithium ions, inorganic nanoparticles, a conductive lithium salt and an organic solvent and adding a tin catalyst for crosslinking and curing. With the isocyanate compound, the mechanical property and thethermal stability of the composite solid-state electrolyte can be improved; by the flexible chain segment compound and the inorganic nanoparticles, the ion conductivity, the ion transfer number and the wide electrochemical window of the composite solid-state electrolyte can be improved, the charge-discharge performance of the lithium ion battery is improved, and the interface contact of the solid-state lithium ion battery is improved; and the organic-inorganic composite solid-state electrolyte has the advantages of excellent interface stability, wide electrochemical window, wide working temperature range, high ion conductivity and versatile shapes and is applicable to a lithium ion polymer battery.

The invention relates to the field of glass and particularly relates to thermal insulation system window matrix glass and a preparation technology thereof. The thermal insulation system window matrixglass is prepared from a matrix, a one-way heat conducting layer, a buffer layer and a heat dissipation layer, wherein the one-way heat conducting layer is arranged on the matrix; the buffer layer isarranged on the one-way heat conducting layer; the heat dissipation layer is arranged on the buffer layer; the one-way heat conducting layer is a copper-doped polyimide film; the buffer layer is a polystyrene layer; the heat dissipation layer is a phenyl type polyimide film or a biphenyl type polyimide film.

The invention, which belongs to the field of electrochemical testing of water supply pipes, provides an electrochemical device for simulating the rapid formation of pipe scale and a test method thereof. The device in an overall circular shape comprises an outer cylinder (1) made of an organic glass material, an inner cylinder (2) made of a polytetrafluoroethylene material, a rotating shaft (3), an organic glass cover plate (4), a motor (5), a working electrode (6), an upper small hole (7) of a cover plate, an auxiliary platinum sheet electrode (8) pasted to the inner wall of a pipeline, a Ag / AgCI(saturated KCl) reference electrode (9) installed in a hole formed in the middle of a platinum sheet, a bottom plate (10), a cylindrical support column (11), a device water inlet (12), and a device water outlet (13). During the experiment process, the motor drives the inner cylinder to make rotation, the material transfer process between a metal hanging piece and a main body is accelerated, and thus the pipe scale formation is promoted. Therefore, a problem of long formation time of the pipe scale of the actual pipeline is solved; and the pipe scales at different growth stages are obtained. A novel device capable of producing the pipe scale rapidly and quantitatively is provided.