1) CdTe quantum dots
CdTe量子点
1.
Synthesis and Characterize of CdTe Quantum Dots and the Research on Its Biology Application;
CdTe量子点的制备及其生物应用
2.
Study on Fluorescence Quenching Effects of Water-Soluble CdTe Quantum Dots by Idodine
单质碘对水溶性CdTe量子点的荧光猝灭研究
3.
CdTe quantum dots (QDs) stabilized by mercaptopropionic acid (MPA) with strong fluorescence were prepared in aqueous solution at low temperature.
利用低温水相法,以巯基丙酸(MPA)作为稳定剂制备了碲化镉(CdTe)量子点,通过马来酰亚胺三嗪(TMT)中的三嗪基团与CdTe量子点表面富含的羧基之间的氢键作用,得到了分散性能优良的纳米杂化材料。
2) CdTe QDs
CdTe量子点
1.
Mercaptopropionic acid was taken as stabilizer to synthesize water-soluble CdTe quantum dots,and the dots were covalently linked to the anti-CEA8(carcinoembryonic antigen) antibody for rabbit and anti-rabbit immunoglobulin for goat by the carboxyl functional groups covered by outer layer of CdTe QDs.
采用巯基丙酸作为稳定剂在水相中合成了水溶性的CdTe量子点,并通过量子点外层包被的羧基实现了量子点与兔抗人癌胚抗原抗体和山羊抗兔免疫球蛋白的链接。
2.
40,the synchronous fluorescent spectra of CdTe QDs were obtained by simultaneously scanning the excitation and emission monochrometers at a fixed Δλ of 220 nm in the presence of proteins.
以巯基乙酸(HS-CH2COOH)为稳定剂,水相中合成了CdTe量子点。
3.
In this dissertation, we focused on the mechanism of reaction between CdTe QDs and small biomolecules.
(1)CdTe量子点可以和腺嘌呤偶联,但反应条件对偶合物的荧光强度影响很大。
3) PbTe/CdTe quantum dots
PbTe/CdTe量子点
1.
Optical gain in PbTe/CdTe quantum dots;
PbTe/CdTe量子点的光学增益
4) CdTe quantum dots (QDs)
CdTe量子点(QDs)
5) CdTe/CdS QDs
CdTe/CdS量子点
1.
The main content is as follows:The new method combining water-bathing and hydrothermal heating for the synthesis of a series of high-quality L-Cysteine(L-Cys) capped CdTe/CdS QDs was firstly introduced.
本项研究在水溶性CdTe/CdS量子点的合成及其作为生物探针对胰蛋白酶测定和细胞标记的应用研究方面做了一系列工作,得到一些创新性结果,主要内容如下:首先提出用半胱氨酸作修饰剂,常见无机试剂为反应原料,将水浴法和水热法结合制备CdTe/CdS量子点的新方法。
6) quantum dots CdTe
CdTe荧光量子点
1.
Studies of the interaction between quantum dots CdTe with aniline;
CdTe荧光量子点与苯胺之间相互作用的研究
补充资料：量子点
量子点(quantum dot)是准零维(quasi-zero-dimensional)的纳米材料，由少量的原子所构成。粗略地说，量子点三个维度的尺寸都在100纳米(nm)以下，外观恰似一极小的点状物，其内部电子在各方向上的运动都受到局限，所以量子局限效应(quantum confinement effect)特别显著。由于量子局限效应会导致类似原子的不连续电子能阶结构，因此量子点又被称为「人造原子」(artificial atom)。科学家已经发明许多不同的方法来制造量子点，并预期这种纳米材料在二十一世纪的纳米电子学(nanoelectronics)上有极大的应用潜力。
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条