Abstract: Disclosed are a decoquinate liposome, a preparation method therefor and a use thereof. The preparation raw materials for the decoquinate liposome comprise the following components in parts by weight: 1 part of decoquinate and 2-20 parts of lecithin. The liposome is stable, shows favorable malaria resistance effects in-vivo and in-vitro with respect to animal bodies, can be used for quickly relieving the conditions of malaria, particularly subtertian malaria, and is safe. The preparation method is simple and feasible, and has the potential for mass production.

Abstract: A method includes providing battery cells for secondary batteries. The battery cells are charged to a fixed voltage (Vc). The battery cells are laid aside in an open circuit for a preset self-discharge time period (t). A voltage (Vt) is measured after the period t for each battery cell. A voltage difference (?V) is determined for each battery cell, wherein ?V=Vc?Vt. A self-discharge rate (?) is measured for each ?V. A self-discharge current (Ic) is calculated during the period t, wherein Ic is a function of ?. The Ic is curve-fitted to the ?V for each battery cell to obtain an Ic??V equation. The Ic is divided into h number of grades. The Ic??V equation is utilized to determine h number of grades of ?V associated with each grade of Ic. Battery cells are selected having a same grade of Ic and ?V for matching.

Abstract: A method includes providing battery cells for secondary batteries. The battery cells are charged to a fixed voltage (Vc). The battery cells are laid aside in an open circuit for a preset self-discharge time period (t). A voltage (Vt) is measured after the period t for each battery cell. A voltage difference (?V) is determined for each battery cell, wherein ?V=Vc?Vt. A self-discharge rate (?) is measured for each ?V. A self-discharge current (Ic) is calculated during the period t, wherein Ic is a function of ?. The Ic is curve-fitted to the ?V for each battery cell to obtain an Ic??V equation. The Ic is divided into h number of grades. The Ic??V equation is utilized to determine h number of grades of ?V associated with each grade of Ic. Battery cells are selected having a same grade of Ic and ?V for matching.

Abstract: In the present invention, a method and system for equalizing and matching lithium secondary batteries belong to the field of secondary batteries. A lithium secondary battery is divided into more than one grade according to the magnitude of a consumable current Ic, the number of grades is h, the lithium secondary battery is divided into grades corresponding to the consumable current according to the magnitude of a voltage difference ?V, a battery cell at a grade same as that of the consumable current and the voltage difference is selected for matching, so the range of the consumable current of the battery group can be controlled.

Abstract: In the present invention, a method and system for equalizing and matching lithium secondary batteries belong to the field of secondary batteries. A lithium secondary battery is divided into more than one grade according to the magnitude of a consumable current Ic, the number of grades is h, the lithium secondary battery is divided into grades corresponding to the consumable current according to the magnitude of a voltage difference ?V, a battery cell at a grade same as that of the consumable current and the voltage difference is selected for matching, so the range of the consumable current of the battery group can be controlled.