In photosynthesis ferredoxin is involved in electron transfer between photosystem I and the final electron acceptor, NADP.

在光作用中，铁硫蛋白与光系统Ⅰ和最终电子受体NADP间的电子传递有关。

Transketolase is the key enzyme of pentose-phophate pathway, catalyses transfer of a two-carbon fragment from a ketolase (donor substance) to an aldose (acceptor substance).

摘要转酮醇酶是磷酸戊糖途径的关键酶，催化二碳单元在酮糖（供体）和醛糖（受体）间的转移。

The results also show that green band emission is due to transition from conduction band to deep acceptor level which result in antiposition defect of OZn.

同样方法的530nm绿峰的发光衰变规律显示绿光主要源于导带至OZn反位缺陷深受主能级的跃迁。

In photosynthesis ferredoxin is involved in electron transfer between photosystem I and the final electron acceptor, NADP.

在光作中，铁硫蛋白与光系统Ⅰ和最终子受体NADP间的子传递有关。

Transketolase is the key enzyme of pentose-phophate pathway, catalyses transfer of a two-carbon fragment from a ketolase (donor substance) to an aldose (acceptor substance).

摘要转酮醇酶是磷途径的关键酶，催化二碳单元在酮（供体）和醛（受体）间的转移。

The results also show that green band emission is due to transition from conduction band to deep acceptor level which result in antiposition defect of OZn.

同样方法测量的530nm绿峰的发光衰变规律显示绿光主要源于导带至OZn反位缺陷深受主能级的跃迁。

In photosynthesis ferredoxin is involved in electron transfer between photosystem I and the final electron acceptor, NADP.

在光作中，铁硫蛋白与光系统Ⅰ和最终电子受体NADP间的电子传递有关。

Transketolase is the key enzyme of pentose-phophate pathway, catalyses transfer of a two-carbon fragment from a ketolase (donor substance) to an aldose (acceptor substance).

摘要转酮醇酶是磷酸戊的关键酶，催化二碳单元在酮（供体）和醛（受体）间的转移。

The results also show that green band emission is due to transition from conduction band to deep acceptor level which result in antiposition defect of OZn.

同样方法测量的530nm绿峰的发光衰变规律显示绿光主要源于导带至OZn反位缺陷深受主能级的跃迁。

In photosynthesis ferredoxin is involved in electron transfer between photosystem I and the final electron acceptor, NADP.

在光作用中，铁硫蛋白与光系统Ⅰ和最终受体NADP间的传递有关。

Transketolase is the key enzyme of pentose-phophate pathway, catalyses transfer of a two-carbon fragment from a ketolase (donor substance) to an aldose (acceptor substance).

摘要转酮醇酶是糖途径的关键酶，催化二碳单元在酮糖（供体）和醛糖（受体）间的转移。

The results also show that green band emission is due to transition from conduction band to deep acceptor level which result in antiposition defect of OZn.

同样方法测量的530nm绿峰的发光衰变规律显示绿光主要源于导带至OZn反位缺陷深受主能级的跃迁。

In photosynthesis ferredoxin is involved in electron transfer between photosystem I and the final electron acceptor, NADP.

在光作用中，铁硫蛋白与光系统Ⅰ和最终电受体NADP间的电传递有关。

Transketolase is the key enzyme of pentose-phophate pathway, catalyses transfer of a two-carbon fragment from a ketolase (donor substance) to an aldose (acceptor substance).

摘醇酶是磷酸戊糖途径的关键酶，催化二碳单元在糖（供体）和醛糖（受体）间的移。

The results also show that green band emission is due to transition from conduction band to deep acceptor level which result in antiposition defect of OZn.

同样方法测量的530nm绿峰的发光衰变规律显示绿光主源于导带至OZn反位缺陷深受主能级的跃迁。

In photosynthesis ferredoxin is involved in electron transfer between photosystem I and the final electron acceptor, NADP.

在光作用中，铁硫蛋白与光系统Ⅰ和最终电子受体NADP间的电子有关。

Transketolase is the key enzyme of pentose-phophate pathway, catalyses transfer of a two-carbon fragment from a ketolase (donor substance) to an aldose (acceptor substance).

摘要转酮醇酶是磷酸戊糖途径的关键酶，催化二碳单元在酮糖（供体）和醛糖（受体）间的转移。

The results also show that green band emission is due to transition from conduction band to deep acceptor level which result in antiposition defect of OZn.

同样方法测量的530nm绿峰的发光衰变规律显示绿光主要源于导带至OZn反位缺陷深受主能级的跃迁。

In photosynthesis ferredoxin is involved in electron transfer between photosystem I and the final electron acceptor, NADP.

在作用中，铁硫蛋白与系统Ⅰ和最终电子受体NADP间的电子传递有关。

Transketolase is the key enzyme of pentose-phophate pathway, catalyses transfer of a two-carbon fragment from a ketolase (donor substance) to an aldose (acceptor substance).

摘要转酮醇酶是磷酸戊糖途径的关键酶，催化二碳单元在酮糖（供体）和醛糖（受体）间的转移。

The results also show that green band emission is due to transition from conduction band to deep acceptor level which result in antiposition defect of OZn.

同样方法测量的530nm绿峰的发规律显示绿主要源于导带至OZn反位缺陷深受主能级的跃迁。

In photosynthesis ferredoxin is involved in electron transfer between photosystem I and the final electron acceptor, NADP.

在光作用中，铁硫蛋白与光系统Ⅰ和最终电受体NADP间的电传递有关。

Transketolase is the key enzyme of pentose-phophate pathway, catalyses transfer of a two-carbon fragment from a ketolase (donor substance) to an aldose (acceptor substance).

摘醇酶是磷酸戊糖途径的关键酶，催化二碳单元在糖（供体）和醛糖（受体）间的移。

The results also show that green band emission is due to transition from conduction band to deep acceptor level which result in antiposition defect of OZn.

同样方法测量的530nm绿峰的发光衰变规律显示绿光主源于导带至OZn反位缺陷深受主能级的跃迁。

In photosynthesis ferredoxin is involved in electron transfer between photosystem I and the final electron acceptor, NADP.

在光作用中，铁硫蛋白与光系统Ⅰ和最终受体NADP间的传递有关。

Transketolase is the key enzyme of pentose-phophate pathway, catalyses transfer of a two-carbon fragment from a ketolase (donor substance) to an aldose (acceptor substance).

摘要酶是磷酸戊糖途径的关键酶，催化二碳单元在糖（供体）和醛糖（受体）间的移。

The results also show that green band emission is due to transition from conduction band to deep acceptor level which result in antiposition defect of OZn.

同样方法测量的530nm绿峰的发光衰变规律显示绿光主要源于导带至OZn反位缺陷深受主能级的跃迁。