Examples of using Quantum dots in English and their translations into Vietnamese
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Colloquial
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Ecclesiastic
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Computer
Quantum dots are particularly significant for optical applications due to their high extinction coefficient.[28] In electronic applications they have been proven
Individual quantum dots can be created from two-dimensional electron or hole gases present in remotely doped quantum wells or semiconductor heterostructures called lateral quantum dots.
Classical models of electrostatic properties of electrons in quantum dots are similar in nature to the Thomson problem of optimally distributing electrons on a unit sphere.
nearly 3 million quantum dots could be lined up end to end and fit within the
Depending on the size of the particle, which can be controlled precisely, quantum dots emit light in a specific wavelength, which the human eye perceives as a specific color.
This effect of quantum confinement on the quantum dots has been experimentally verified[12] and is a key feature of many emerging electronic structures.[13][14].
Ultra-high definition displays and televisions are now being sold that use quantum dots to produce more vibrant colors while being more energy efficient.
The classical electrostatic treatment of electrons confined to spherical quantum dots is similar to their treatment in the Thomson,[57] or plum pudding model, of the atom.[58].
With several entangled quantum dots, or qubits, plus a way of performing operations, quantum calculations and the computers that
Researchers have been studying quantum dots in order to find a low-energy means of reproducing light in every color visible to the human eye and at a very bright luminescence.
the researchers overcame this problem by creating quantum dots that were highly symmetrical using an etching method to create the hole pairs in which the quantum dots develop.
Consequently, the color of emitted light shifts from red to blue when the size of the quantum dot is made smaller.[10] This allows the excitation and emission of quantum dots to be highly tunable.
The bonding in certain cadmium-free quantum dots, such as III-V-based quantum dots, is more covalent than that in II-VI materials,
Lead sulfide-containing nanoparticle and quantum dots have been well studied.[8] Traditionally, such materials are produced by combining lead
the energy of the quantum dots is dependent on their size due to the quantum confinement effects, which dominate below
though it generally hints at quantum dots, which as far as I'm aware of,
In their innovative paper published in Chemical Communications, a Royal Society of Chemistry journal, the researchers observed that when TiO2 particles are mixed with graphene quantum dots, the resulting composite absorbs visible light by a quantum-confined bandgap narrowing mechanism.
When several quantum dots are combined to scale in the device up to a large number of qubits, this tuning process becomes enormously time-consuming because the semiconductor quantum dots are not completely identical and must each be characterized individually.
pixel can emit its own light, in this case thanks to quantum dots- tiny semiconductor particles only a few nanometres in size.
Professor Dr. Dominik Zumbühl from the University of Basel, said:“The next step at our laboratory is now to apply the software to semiconductor quantum dots made of other materials that are better suited to the development of a quantum computer.”.