Results show that the composite improves the first cycle columbic efficiency and cycle life of anode materials effectively.

结果表明，该碳纳米管复合导电剂有效提高电极材料的首效率和循环寿命。

Interpolymer complexes can be formed by two polymers through hydrogen bond or electrostatic force include hydrogen complexes and polyelectrolyte complexes.

两种大分子以利用氢键或者力形成高分子复合物,根据不同的作用力性质分氢键复合物(氢键作用)和聚电解质复合物(静电力)。

In this paper,analytical expressions for double step potential chronoamperometry and chronocoulometry with simple reversible electrode reaction at microring electrodes are derived.

推导了微环电极上双电位阶跃计时电流和计时法理论方程式，并得到了解析表达式。

Using the Relativity Theory, Ampere s law can be derived from the Colulmb s law, and the induced-electromotance and dynamic-electromotance may be alternated each other.

应用相对论理论,安培定律通过定理推出,感生电动势和动生电动势以相互转化,在此意义上磁学基本定律进一步统一到静电学定律之中。

Results show that the composite improves the first cycle columbic efficiency and cycle life of anode materials effectively.

结果表明，该碳纳米管复合导剂有效提高极材料的首次库仑效率和循环寿命。

Interpolymer complexes can be formed by two polymers through hydrogen bond or electrostatic force include hydrogen complexes and polyelectrolyte complexes.

两种大分子用氢键或者库仑力形成高分子复合物,根据不同的作用力性质分氢键复合物(氢键作用)和聚解质复合物(静力)。

In this paper,analytical expressions for double step potential chronoamperometry and chronocoulometry with simple reversible electrode reaction at microring electrodes are derived.

推导了微环极上阶跃计时流和计时库仑法逆波理论方程式，并得到了解析表达式。

Using the Relativity Theory, Ampere s law can be derived from the Colulmb s law, and the induced-electromotance and dynamic-electromotance may be alternated each other.

应用相对论理论,安培定律通过库仑定理推出,感生动势和动生动势相互转化,在此意义上磁学基本定律进一步统一到静学定律之中。

Results show that the composite improves the first cycle columbic efficiency and cycle life of anode materials effectively.

结果表明，该碳纳米管导电剂可有效提高电极材料的首次库仑效率和循环寿命。

Interpolymer complexes can be formed by two polymers through hydrogen bond or electrostatic force include hydrogen complexes and polyelectrolyte complexes.

两种大可以利用氢键或者库仑力形成高,根据不同的作用力性质可氢键(氢键作用)和聚电解质(静电力)。

In this paper,analytical expressions for double step potential chronoamperometry and chronocoulometry with simple reversible electrode reaction at microring electrodes are derived.

推导了微环电极上双电位阶跃计时电流和计时库仑法可逆波理论方程式，并得到了解析表达式。

Using the Relativity Theory, Ampere s law can be derived from the Colulmb s law, and the induced-electromotance and dynamic-electromotance may be alternated each other.

应用相对论理论,安培定律可通过库仑定理推出,感生电动势和动生电动势可以相互转化,在此意义上磁学基本定律可进一步统一到静电学定律之中。

Results show that the composite improves the first cycle columbic efficiency and cycle life of anode materials effectively.

结果表明，该碳纳米管复合导电剂有效提高电极材料的首次仑效率和循环寿命。

Interpolymer complexes can be formed by two polymers through hydrogen bond or electrostatic force include hydrogen complexes and polyelectrolyte complexes.

两种大分子以利用氢键或者仑力形成高分子复合物,根据不同的作用力性质分氢键复合物(氢键作用)和聚电解质复合物(静电力)。

In this paper,analytical expressions for double step potential chronoamperometry and chronocoulometry with simple reversible electrode reaction at microring electrodes are derived.

推导了微环电极上双电位阶跃计时电流和计时仑法逆波理论方程式，并得到了解析表达式。

Using the Relativity Theory, Ampere s law can be derived from the Colulmb s law, and the induced-electromotance and dynamic-electromotance may be alternated each other.

应用相对论理论,安培定律仑定理推出,感生电动势和动生电动势以相互转化,在此意义上磁学基本定律进一步统一到静电学定律之中。

Results show that the composite improves the first cycle columbic efficiency and cycle life of anode materials effectively.

结果表明，该碳纳米管复合导剂可有效提高极材料的首次库仑效率和循环寿命。

Interpolymer complexes can be formed by two polymers through hydrogen bond or electrostatic force include hydrogen complexes and polyelectrolyte complexes.

两种大分子可以利用氢键或者库仑高分子复合物,根据不同的作用性质可分氢键复合物(氢键作用)和聚解质复合物(静)。

In this paper,analytical expressions for double step potential chronoamperometry and chronocoulometry with simple reversible electrode reaction at microring electrodes are derived.

导了微环极上双位阶跃计时流和计时库仑法可逆波理论方程式，并得到了解析表达式。

Using the Relativity Theory, Ampere s law can be derived from the Colulmb s law, and the induced-electromotance and dynamic-electromotance may be alternated each other.

应用相对论理论,安培定律可通过库仑定理出,感生动势和动生动势可以相互转化,在此意义上磁学基本定律可进一步统一到静学定律之中。

Results show that the composite improves the first cycle columbic efficiency and cycle life of anode materials effectively.

果表明，该碳纳米管复合导电剂有效提高电极材料的首次仑效率和循环寿命。

Interpolymer complexes can be formed by two polymers through hydrogen bond or electrostatic force include hydrogen complexes and polyelectrolyte complexes.

两种大分子以利用氢键或者仑力形成高分子复合物,根据不同的作用力性质分氢键复合物(氢键作用)和聚电解质复合物(静电力)。

In this paper,analytical expressions for double step potential chronoamperometry and chronocoulometry with simple reversible electrode reaction at microring electrodes are derived.

推导了微环电极上双电位阶跃计时电流和计时仑法逆波理论方程式，并得到了解析表达式。

Using the Relativity Theory, Ampere s law can be derived from the Colulmb s law, and the induced-electromotance and dynamic-electromotance may be alternated each other.

应用相对论理论,安培定过仑定理推出,感生电动势和动生电动势以相互转化,在此意义上磁学基本定进一步统一到静电学定之中。

Results show that the composite improves the first cycle columbic efficiency and cycle life of anode materials effectively.

结果表明，该碳纳米管复合导剂可有效提高极材料的首次库仑效率循环。

Interpolymer complexes can be formed by two polymers through hydrogen bond or electrostatic force include hydrogen complexes and polyelectrolyte complexes.

种大分子可以利用氢键或者库仑力形成高分子复合物,根据不同的作用力性质可分氢键复合物(氢键作用)聚解质复合物(静力)。

In this paper,analytical expressions for double step potential chronoamperometry and chronocoulometry with simple reversible electrode reaction at microring electrodes are derived.

推导了微环极上双位阶跃计时计时库仑法可逆波理论方程式，并得到了解析表达式。

Using the Relativity Theory, Ampere s law can be derived from the Colulmb s law, and the induced-electromotance and dynamic-electromotance may be alternated each other.

应用相对论理论,安培定律可通过库仑定理推出,感生动势动生动势可以相互转化,在此意义上磁学基本定律可进一步统一到静学定律之中。

Results show that the composite improves the first cycle columbic efficiency and cycle life of anode materials effectively.

结果表明，该碳纳米管复合导电剂可有效提高电极材料的首次库仑效率和循环寿命。

Interpolymer complexes can be formed by two polymers through hydrogen bond or electrostatic force include hydrogen complexes and polyelectrolyte complexes.

两种大分子可以利用氢键或者库仑力形成高分子复合物,根据不同的作用力性质可分氢键复合物(氢键作用)和聚电解质复合物(静电力)。

In this paper,analytical expressions for double step potential chronoamperometry and chronocoulometry with simple reversible electrode reaction at microring electrodes are derived.

导了微环电极上双电位阶跃计时电流和计时库仑法可逆波理论方程式，并得到了解析表达式。

Using the Relativity Theory, Ampere s law can be derived from the Colulmb s law, and the induced-electromotance and dynamic-electromotance may be alternated each other.

应用相对论理论,安培定律可通过库仑定理,生电动势和动生电动势可以相互转化,在此意义上磁学基本定律可进一步统一到静电学定律之中。

Results show that the composite improves the first cycle columbic efficiency and cycle life of anode materials effectively.

结果表明，该碳纳米管复合导电剂可有效提高电极材料的仑效率和循环寿命。

Interpolymer complexes can be formed by two polymers through hydrogen bond or electrostatic force include hydrogen complexes and polyelectrolyte complexes.

两种大分子可以利用氢键或者仑力形成高分子复合物,根据不同的作用力性质可分氢键复合物(氢键作用)和聚电解质复合物(静电力)。

In this paper,analytical expressions for double step potential chronoamperometry and chronocoulometry with simple reversible electrode reaction at microring electrodes are derived.

推导了微环电极上双电位阶跃计时电流和计时仑法可论方程式，并得到了解析表达式。

Using the Relativity Theory, Ampere s law can be derived from the Colulmb s law, and the induced-electromotance and dynamic-electromotance may be alternated each other.

应用相对论论,安培定律可通过仑定推出,感生电动势和动生电动势可以相互转化,在此意义上磁学基本定律可进一步统一到静电学定律之中。