hemoprotein
简明释义
英[ˈhiːməʊˌprəʊtiːn]美[hiːmoʊˈproʊtiːn]
[生化] 血红素蛋白质
[生化] 血红素蛋白
英英释义
单词用法
血红蛋白结构 | |
血红蛋白功能 | |
血红蛋白合成 | |
血红蛋白结合 | |
血红蛋白复合物 | |
血红蛋白衍生物 | |
血红蛋白水平 | |
血红蛋白分析 |
同义词
血红蛋白 | 血红蛋白在血液中对氧气运输至关重要。 | ||
肌红蛋白 | 肌红蛋白在肌肉细胞中储存氧气。 |
反义词
非血红素蛋白 | 非血红素蛋白可以与血红素结合形成血红蛋白。 | ||
非血红蛋白质 | 非血红蛋白质在细胞功能中扮演着多种角色。 |
例句
1.The mechanism may be that CO binds to hemoprotein and inhibits hemoprotein oxygen sensor.
其机制可能为一氧化碳抑制血红素蛋白氧感受器的功能。
2.His team investigated the state of abnormal composition of hemoprotein in myelodysplastic syndrome.
他的团队探讨骨髓增生异常综合征的患者血红蛋白合成异常的情况。
3.The mechanism may be that CO binds to hemoprotein and inhibits hemoprotein oxygen sensor.
其机制可能为一氧化碳抑制血红素蛋白氧感受器的功能。
4.Myoglobin is a type of hemoprotein that stores oxygen in muscle cells.
肌红蛋白是一种血红蛋白,在肌肉细胞中储存氧气。
5.Cytochrome P450 is an important hemoprotein involved in drug metabolism.
细胞色素P450是一种重要的血红蛋白,参与药物代谢。
6.The presence of hemoprotein in blood can indicate various medical conditions.
血液中存在的血红蛋白可以指示各种医疗状况。
7.Some enzymes are classified as hemoprotein due to their heme groups.
一些酶被归类为血红蛋白,因为它们含有血红素。
8.Heme is the iron-containing component of hemoprotein that binds oxygen.
血红素是血红蛋白中含铁的成分,能够结合氧气。
作文
Hemoproteins are a fascinating class of proteins that play crucial roles in various biological processes. These proteins contain a heme group, which is an iron-containing compound that is essential for their function. The presence of the heme group allows hemoprotein (血红蛋白) to participate in critical activities such as oxygen transport, electron transfer, and catalysis of biochemical reactions. One of the most well-known examples of a hemoprotein (血红蛋白) is hemoglobin, which is found in red blood cells and is responsible for carrying oxygen from the lungs to the tissues and organs throughout the body.The structure of hemoprotein (血红蛋白) is quite complex, typically consisting of a globin protein bound to one or more heme groups. This unique structure enables hemoprotein (血红蛋白) to bind oxygen molecules effectively. When hemoglobin binds to oxygen in the lungs, it undergoes a conformational change that enhances its ability to pick up additional oxygen molecules. This property is vital for ensuring that our bodies receive an adequate supply of oxygen, especially during physical exertion.In addition to hemoglobin, there are other types of hemoprotein (血红蛋白) that serve different functions. For instance, myoglobin, which is found in muscle tissues, also contains a heme group and is responsible for storing and releasing oxygen as needed. Cytochromes are another category of hemoprotein (血红蛋白) that play a key role in the electron transport chain, a series of reactions that generate energy in the form of ATP within cells.The study of hemoprotein (血红蛋白) is not only important for understanding fundamental biological processes but also has significant implications for medicine and biotechnology. Abnormalities in hemoprotein (血红蛋白) function can lead to various health issues, including anemia, respiratory problems, and certain genetic disorders. For example, sickle cell disease is caused by a mutation in the gene that encodes the beta-globin subunit of hemoglobin, leading to the production of abnormal hemoglobin that distorts red blood cells into a sickle shape. This condition results in reduced oxygen-carrying capacity and various complications.Moreover, researchers are exploring the potential of hemoprotein (血红蛋白) in biotechnological applications. Enzymes that contain heme groups can be used in industrial processes for catalyzing reactions, such as the degradation of pollutants or the synthesis of pharmaceuticals. Additionally, understanding the mechanisms by which hemoprotein (血红蛋白) functions can inspire the design of artificial oxygen carriers for medical use, which could be beneficial in situations where blood transfusions are not possible.In conclusion, hemoprotein (血红蛋白) represents a diverse and essential group of proteins that are integral to life. Their ability to bind and transport oxygen, facilitate electron transfer, and catalyze reactions highlights their importance in both physiological and industrial contexts. As research continues to uncover the complexities of hemoprotein (血红蛋白), we can expect to see advancements in our understanding of health and disease, as well as innovative applications in biotechnology.