碳酸脫水酶 的英文怎麼說

中文拼音 [tànsuāntuōshuǐ]
碳酸脫水酶 英文
carbonate dehydratase
  • : 名詞[化學] (非金屬元素) carbon (c)
  • : 酸構詞成分。
  • : Ⅰ動詞1 (脫落) cast; shed; drop; fall off 2 (取下; 除去) take off; strip; cast off 3 (脫離) ...
  • : 名詞1 (由兩個氫原子和一個氧原子結合而成的液體) water 2 (河流) river 3 (指江、河、湖、海、洋...
  • : 名詞[生物化學] (生物體的細胞產生的有機膠狀物質) enzyme; ferment
  • 碳酸 : carbonic acid碳酸氣 carbonic acid gas; 碳酸泉 [水文] carbonate spring; 碳酸泉水 apollinaris
  • 脫水 : 1 [醫學] (人體液體減少) deprivation of body fluids; dehydration2 [化學] (物質失水分) dehydrat...
  1. 4. engineering dhqase ( arod ) - deficient e. coli mutant with a second copy of the arob gene gene targeting technique was used to disrupt the arod gene in e. coli chromosome. the mutant 31bk was engineered, in which homologous recombination of the arobkanr gene cassette into the arod locus ( arod : : arobkanr ) of the e. coli strain atcc31884 genome utilized the helper plasmid pkd46 with red system. the host cell 31bk lacked catalytic activity of dhqase ( arod ) and had a second copy of the arob gene, so it improved carbon flow into the quinic acid biosynthesis direction

    構建宿主菌基因精確定位突變株31bk ( arod : : arobkan ~ r )為了改變代謝途徑氫奎尼( dhq )分支點上的代謝流量,使之充分流向目的產物奎尼合成方向,利用基因打靶技術構建了31884宿主菌arod基因精確定位插入突變體,使dhq( dhqase )失活,阻斷了代謝流流向芳香氨基生成的方向,同時用同源重組的方法將arob基因定位整合入染色體上,解除了限速代謝流通過共同途徑到達dhq的阻遏影響,並減輕代謝負擔。
  2. When inadequate n was added, the chloroplast structure in mesophyll cell was damaged in ear leaf, the amount of carbohydrate decreased in mestome sheath, and excessive n - redistribution and n - transportation to grain from vegetative mass appeared, which resulted in earlier leaf senescence. excessive n application led to too high activity of nitrate reductase, excessive vigorous nitrogen metabolism and too much exhaustion of carbohydrate in ear leaf, which resulted in the lack of enough carbohydrate in the lower leaf, meanwhile, the expansive chloroplast grana lamellae in leaf mesophyll cell and starch grain without nuclear in mestome sheath cell was observed, which led to the decrease of chlorophyll content and photosythetic capacity in maize leaf, then the early senescence occured

    氮肥用量不足導致穗葉葉肉細胞葉綠體結構性差,維管束鞘細胞化合物累積減少,營養體氮素再分配率大而引起葉片早衰;而過量供氮則導致生長後期硝還原活性過高,氮素代謝過旺,消耗了大量化合物,以致下位葉不能得到充足的化合物供應而提早落,同時葉肉細胞葉綠體片層結構膨脹,呈「肉汁化」特徵,維管束鞘細胞澱粉粒大量消耗,無核澱粉粒出現,從而葉片葉綠素含量下降,光合能力降低而出現早衰。
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