QUANTUM DOT in Chinese translation

• 量子点

Examples of using Quantum dot in English and their translations into Chinese

In a paper published in Nature Communications, the Los Alamos researchers successfully resolved several challenges on the path to commercially viable colloidal quantum dot technology.
在《NatureCommunications》杂志上发表的一篇论文中，LosAlamos实验室的研究人员成功地解决了胶体量子点技术商业化道路上的几个挑战。

In addition, beginning this year, the TV giant will apply quantum dot(QD) displays to special products such as"The Frame" and"The Serif.".
此外，从今年开始，这家电视巨头将在“框架”和“衬线”等特殊产品上应用量子点(QD)显示器。

And because these quantum dots are non-toxic, they also have the potential to be used in biomedical applications.”.
而且由于这些量子点无毒性，因此也有潜力用于生物医学应用领域。

The advantages of a new generation of quantum dots can be summarized as"high, pure, long" in three areas.
新一代量子点的优点可以概括为三区域的"高、纯、长"。

Currently, each wafer consists of quantum dots that must be carefully sliced so that each chip gets the appropriate number of qubits.
目前，每个晶圆都由量子点组成，必须仔细切片，以便每个芯片得到适当数量的量子位。

The researchers explained that in the manufacture of white LEDs, quantum dots have several advantages: they are easy to manufacture;
研究人员解释，在制造白光LED方面，量子点具有多项优势：便于制造；.

The insertion of quantum dots also proved stable, which means that light could be used to carry information through the structure as well as electricity.
而且，插入的量子点也被证明是稳定的，这意味着光可以通过结构以及电力携带信息。

Perovskite and quantum dots have distinct physical structures, and the similarities between these materials have been usually overlooked,” said Liu.
钙钛矿和量子点具有不同的物理结构，这些材料之间的相似性通常被忽视，”她说。

Perovskite and quantum dots have distinct physical structures, and the similarities between these materials have been usually overlooked," she says.
钙钛矿和量子点具有不同的物理结构，这些材料之间的相似性通常被忽视，”她说。

Quantum dots are semiconductor nanocrystal particles used to enhance LCD color gamut, rendering as much as a 30-percent increase in the visible spectrum.
量子点是半导体纳米晶体颗粒，用于增强LCD色域，使可见光谱增加30％。

To use quantum dots as the main element in a display, the crystals need to be excited by electrons, not photons.
为了让量子点在显示器中用作主要部分，晶体需要被电子而不是光子激发。

But temperatures above 100 C can destroy the passivation layer, causing the quantum dots to aggregate or clump together, wrecking their ability to harvest light.
但是高于100℃的温度会破坏钝化层，导致量子点聚集或聚集在一起，破坏了它们收获光的能力。

This is key to obtaining the lasing effect and, at the same time, allowing for efficient excitation of the quantum dots by the electrical current.
这是获得激光效应的关键，同时允许有效的激发量子点的电流。

Different materials due to their chemical composition and properties can generate various sizes of quantum dots and determine their emission maxima.
由于其化学组成和特性，不同材料可以产生不同大小的量子点并确定其最大发光值。

As we all know, the current market, the three major display technologies are: LCD, OLED and quantum dots.
众所周知,目前市场上,三主要的显示技术有:LCD、OLED和量子点。

Clearly, Samsung hopes to re-enable OLED technology: use a blue light-emitting organic layer to excite quantum dots, and red and green pixels through blue light.
很明显，三星希望重新启用OLED技术：使用蓝色发光有机层来激发量子点，通过蓝光产生红色和绿色像素。

For their experiments, they focused on non-degradable"hard" nanoparticles: quantum dots, gold nanoparticles, and silica nanoparticles.
在实验中，他们着重关注不可降解的“硬的”纳米颗粒：量子点、金纳米颗粒和二氧化硅纳米颗粒。

In the long term, they will study the quantum dots at even lower temperatures, where the effects could be very dramatic.
从长远来看，他们将在更低温度下研究量子点，那效果可能会非常戏剧化。

Researchers from North Carolina State University have developed a microfluidic system for synthesizing perovskite quantum dots across the entire spectrum of visible light.
北卡罗来纳州立大学的研究人员开发了一种微流体系统，用于合成整个可见光光谱中的钙钛矿量子点。

Semiconductor quantum dots(QDs) are nanoparticles that have attracted widespread interest in biology and medicine due to their unique optical and electronic properties.
半导体数量小点(QDs)是在生物上吸引了普遍兴趣和医学由于他们的唯一光学和电子属性的nanoparticles。