量子電池的作用原理量子電池的微型結構是以夾心層的型式來建立納米位元，它

量子電池的作用原理
量子電池的微型結構是以夾心層的型式來建立納米位元，它是一個介質層夾在2個磁化層之間。而一個標準量子電池是併聯了百萬個納米位元，並以半導體薄膜製程大量生產
研發量子電池時，為了顯著增加納米位元，著重於提升介電常數（k或o）及GMC（巨量子電池）的效應。 GMC的效應，就是於充電時使電子更緊密的靠在一起，從而提高電子密度。根據量子力學理論的計算，GMC所帶來影響，將會使納米位元大幅增加達在標準條件下的1017倍。此外量子電池在漏電和自放電的測試上亦十分令人滿意，電子就像被“困”在磁場中難以脫離。今天已經可以在工廠製造量子電池並將產品商業化。由於加工困難和缺乏對薄膜磁性的了解，目前全球沒有其他公司有這方面的技術。

結果 (中文) 1:

量子电池的作用原理量子电池的微型结构是以夹心层的型式来建立纳米位，它是一个介质层夹在2个磁化层之间。 而一个标准量子电池是并联了百万个纳米位，并以半导体薄膜制程大量生产研发量子电池时，为了显著增加纳米位，着重于提升介电常数（k或o）及GMC（巨量子电池）的效应。 GMC的效应，就是于充电时使电子更紧密的靠在一起，从而提高电子密度。 根据量子力学理论的计算，GMC所带来影响，将会使纳米位大幅增加达在标准条件下的1017倍。 此外量子电池在漏电和自放电的测试上亦十分令人满意，电子就像被“困”在磁场中难以脱离。 今天已经可以在工厂制造量子电池并将产品商业化。 由于加工困难和缺乏对薄膜磁性的了解，目前全球没有其他公司有这方面的技术。

結果 (中文) 3:

The quantum cell's function theory of quantum cell is the micro structure of the sandwich layer type to establish the nano bit, it is a dielectric layer sandwiched between 2 magnetic layers. And a battery of standard quantum is parallel millions of nano bits, and semiconductor process mass production
R & D quantum batteries, in order to significantly increase nano bit, focus on the promotion dielectric constant (k or o) and GMC (huge amount of battery) effect. The effect of the GMC is to make the electrons more closely together, so as to increase the electron density. According to the calculation of quantum mechanics theory, the influence of GMC,Will make the nano - bit significantly increased by 1017 times in the standard conditions. In addition, quantum batteries in the leakage and self discharge test is also very satisfactory, the electron is like being trapped in the magnetic field is difficult to escape. Today, we can make a quantum cell in the factory and will be commercial. Because of the difficulty of processing and lack of understanding of the magnetic properties of the film, there is no other company in the world to have this technology.