如何在Endnote導入新的output style（新reference格式）

 首先進入Endnote output style網頁

https://endnote.com/downloads/styles/?wpv_aux_current_post_id=12829&wpv_view_count=12764-TCPID12829

下載全部的style (Download all styles) 或是挑選想要的期刊style

下載好後解壓縮至endnote 的style資料夾，

以EndNote X8為例，style資料夾路徑如下: OS (C:)> Program Files(x86)> EndNote X8>Styles

Cell voltage and cell energy density calculation

Reference: https://pubs.acs.org/doi/suppl/10.1021/acsenergylett.0c00913/suppl_file/nz0c00913_si_001.pdf

EC-Lab EIS 擬合結果error 值 和 deviation 偏差值之判讀

 

經EC-Lab EIS成功擬合結果可得下表

藍色框框為deviation (dev)

紅色框框為 error ratio ( X2/ I Z I )

一般來說，dev偏差值要<1，但超過5個elements的fitting, 後面elements 的dev都可以容許比較大一點，以這範例來說R2與R3 略大於1是OK的。

而 error ratio ( X2/ I Z I ) <0.1。

一般在擬合時，會先看dev值是否<1，在查核 error ratio。

官方Youtube頻道參考影片:(影片標題及連結)

Description of the fitting window – ZFit tutorial, part.4 - BioLogic

Tips and tricks - ZFit tutorial, part.5 - BioLogic 

ZSim and ZFit as learning tools. Part V – How to choose the proper equivalent circuit? 

ZSim and ZFit as learning tools. Part VII – Equivalent circuits identifiability 

ZFit: How to have confidence in results using std err.?

固態電池相關知識影片

5.1 贺艳兵：固态电池电解质和界面研究

https://www.bilibili.com/video/BV1RC4y1t786 

5.2 固态电池研究及产业化

https://www.bilibili.com/video/BV1Ea4y1x7eh 

5.3  加拿大西安大略大學孫學良-全固態電池：電池界面設計、新型固態電解質和電極

https://www.bilibili.com/video/BV1ei4y1x7Ta 

5.4  查爾姆斯理工大學熊仕昭-固態電池與鋰負極界面設計

https://www.bilibili.com/video/BV1bZ4y1H7Bv 

5.5  中科院化學所郭玉國-金屬鋰固態電池研究進展

https://www.bilibili.com/video/BV1FK4y147Fz 

新穎電池相關知識影片

4.1 方国赵：锌离子电解液与电极界面研究

https://www.bilibili.com/video/BV1oa4y1E7Xm  

4.2 Operando XAFS在電池研究中的應用

https://www.bilibili.com/video/BV11t4y117Ga 

4.3 華南師範大學邢麗丹-離子溶劑化層結構對電解液及電極/電解液界面性質的影響機理

https://www.bilibili.com/video/BV16K4y1t7xd  

碳材料與MXene相關知識影片彙整

3-1  劉婧：拉曼光譜原理及其在碳材料中的應用

https://www.bilibili.com/video/BV1jg4y1q7Zz  

3-2 四川大學林紫鋒-二維Mxene及其電化學儲能

https://www.bilibili.com/video/BV1nZ4y1p7b6

電池相關教學影片彙整

 1.基礎知識篇: 

山東科技大學劉瑞《鋰離子電池》前沿課程（目前有7部，持續更新中）

https://www.bilibili.com/video/BV1Zi4y1x7b5  

2.電池材料分析篇

2-1廈門大學李劍鋒-電化學拉曼光譜分析

https://www.bilibili.com/video/BV1ta4y177g4  

2-2 復旦大學蔡文斌-電化學紅外光譜方法和應用

https://www.bilibili.com/video/BV1iV411U7ok  

2-3 山東科技大學劉瑞-用於電池材料研究的X射線粉末衍射基礎

https://www.bilibili.com/video/BV19z4y1X73b 

2-4  XRD在電化學中的應用

https://www.bilibili.com/video/BV1ve411s73g 

2-5  XPS實驗技術及在電池領域的應用

https://www.bilibili.com/video/BV1yv411q7ii 

2-6 掃描電鏡工作原理及製樣方法

 https://www.bilibili.com/video/BV1Ta4y147er   

Three-Dimensional Molybdenum Diselenide Helical Nanorod Arrays for High-Performance Aluminum-Ion Batteries

 The rechargeable aluminum-ion battery (AIB) is a promising candidate for next-generation high-performance batteries, but its cathode materials require more development to improve their capacity and cycling life. We have demonstrated the growth of MoSe2 three-dimensional helical nanorod arrays on a polyimide substrate by the deposition of Mo helical nanorod arrays followed by a low-temperature plasma-assisted selenization process to form novel cathodes for AIBs. The binder-free 3D MoSe2-based AIB shows a high specific capacity of 753 mAh g–1 at a current density of 0.3 A g–1 and can maintain a high specific capacity of 138 mAh g–1 at a current density of 5 A g–1 with 10 000 cycles. Ex situ Raman, XPS, and TEM characterization results of the electrodes under different states confirm the reversible alloying conversion and intercalation hybrid mechanism during the discharge and charge cycles. All possible chemical reactions were proposed by the electrochemical curves and characterization. Further exploratory works on interdigital flexible AIBs and stretchable AIBs were demonstrated, exhibiting a steady output capacity under different bending and stretching states. This method provides a controllable strategy for selenide nanostructure-based AIBs for use in future applications of energy-storage devices in flexible and wearable electronics.

https://doi.org/10.1021/acsnano.0c02831

Transparent Flexible Heteroepitaxy of NiO Coated AZO Nanorods Arrays on Muscovites for Enhanced Energy Storage Application

Transparent flexible energy storage devices are considered as important chains in the next‐generation, which are able to store and supply energy for electronic devices. Here, aluminum‐doped zinc oxide (AZO) nanorods (NRs) and nickel oxide (NiO)‐coated AZO NRs on muscovites are fabricated by a radio frequency (RF) magnetron sputtering deposition method. Interestingly, AZO NRs and AZO/NiO NRs are excellent electrodes for energy storage application with high optical transparency, high conductivity, large surface area, stability under compressive and tensile strain down to a bending radius of 5 mm with 1000 bending cycles. The obtained symmetric solid‐state supercapacitors based on these electrodes exhibit good performance with a large areal specific capacitance of 3.4 mF cm−2, long cycle life 1000 times, robust mechanical properties, and high chemical stability. Furthermore, an AZO/NiO//Zn battery based on these electrodes is demonstrated, yielding a discharge capacity of 195 mAh g−1 at a current rate of 8 A g−1 and a discharge capacity of over 1000 cycles with coulombic efficiency to 92%. These results deliver a concept of opening a new opportunity for future applications in transparent flexible energy storage.

https://doi.org/10.1002/smll.202000020

High-Performance Rechargeable Aluminum–Selenium Battery with a New Deep Eutectic Solvent Electrolyte: Thiourea-AlCl3

Aluminum–sulfur batteries (ASBs) have attracted substantial interest due to their high theoretical specific energy density, low cost, and environmental friendliness, while the traditional sulfur cathode and ionic liquid have very fast capacity decay, limiting cycling performance because of the sluggishly electrochemical reaction and side reactions with the electrolyte. Herein, we demonstrate, for the first time, excellent rechargeable aluminum–selenium batteries (ASeBs) using a new deep eutectic solvent, thiourea-AlCl3, as an electrolyte and Se nanowires grown directly on a flexible carbon cloth substrate (Se NWs@CC) by a low-temperature selenization process as a cathode. Selenium (Se) is a chemical analogue of sulfur with higher electronic conductivity and lower ionization potential that can improve the battery kinetics on the sluggishly electrochemical reaction and the reduction of the polarization where the thiourea-AlCl3 electrolyte can stabilize the side reaction during the reversible conversion reaction of Al–Se alloying processes during the charge–discharge process, yielding a high specific capacity of 260 mAh g–1 at 50 mA g–1 and a long cycling life of 100 times with a high Coulombic efficiency of nearly 93% at 100 mA g–1. The working mechanism based on the reversible conversion reaction of the Al–Se alloying processes, confirmed by the ex situ Raman, XRD, and XPS measurements, was proposed. This work provides new insights into the development of rechargeable aluminum–chalcogenide (S, Se, and Te) batteries

https://pubs.acs.org/doi/10.1021/acsami.0c03882