科学家在实验室制造出了有记录以来最冷的一个四原子大分子 Scientists have created one of the coldest four-atom macromolecules

近日，科学家们在实验室中制造出了有记录以来最冷的四原子大分子，这一成就标志着人类对量子世界的探索进入了一个新的低温纪元。在134纳开尔文的极端低温下，这种钠钾分子结构被成功合成，并在《自然》杂志上发表。四原子分子的复杂结构和化学键组合带来了丰富的化学反应路径和立体化学特性，为量子行为的研究提供了理想的实验平台。此外，四原子分子在超冷化学领域中的应用前景广阔，可以用于探索低温下物质的新状态和新反应，以及作为量子模拟器，对复杂的量子系统进行模拟。这一研究不仅推动了基础科学的发展，还可能带来新型材料和药物的合成，对人类未来科技和生活产生深远影响。
Recently, scientists have created the coldest four-atom molecule ever recorded in a laboratory, marking a new era in humanity's exploration of the quantum world at an extremely low temperature of 134 nanokelvins. This sodium-potassium molecular structure was successfully synthesized and published in the journal Nature. The complex structure and chemical bond combinations of the four-atom molecule bring a rich array of chemical reaction pathways and stereochemical characteristics, providing an ideal experimental platform for the study of quantum behavior. Moreover, the application prospects of four-atom molecules in the field of ultracold chemistry are broad, which can be used to explore new states and reactions of matter at low temperatures, as well as to simulate complex quantum systems as quantum simulators. This research not only promotes the development of basic sciences but may also lead to the synthesis of new materials and drugs, having a profound impact on the future technology and life of humanity.

科学家们通过精确控制的实验条件，实现了对四原子分子能量水平和态的精确操控，这对于精确测量和量子模拟提供了理想条件。四原子分子在超冷化学领域中的应用，不仅有助于探索物质在超低温度下的新状态和新反应，还能作为量子模拟器，用于模拟复杂的量子系统。这项研究的成果，预示着未来信息技术的巨大突破，同时也为科学家们提供了一个全新的研究平台。在超低温度的环境下，四原子分子的量子态可以被精确操控，使得科学家能够直接观察和研究量子态之间的转换和相互作用，为化学反应动力学的研究提供了新的视角。
Scientists have achieved precise control over the energy levels and states of four-atom molecules under precisely controlled experimental conditions, providing ideal conditions for accurate measurement and quantum simulation. The application of four-atom molecules in the field of ultracold chemistry not only helps to explore new states and reactions of matter at ultra-low temperatures but also serves as quantum simulators for simulating complex quantum systems. The results of this research indicate a significant breakthrough in future information technology and also provide scientists with a new research platform. At ultra-low temperatures, the quantum states of four-atom molecules can be precisely manipulated, allowing scientists to directly observe and study the transitions and interactions between quantum states, providing a new perspective for the study of chemical reaction dynamics.

科学家们在超冷分子的研究中，不仅面临着实验设计的重重困难，还必须克服分子冷却过程中的挑战。通过创新的多步骤冷却过程和精确控制的微波照射，科学家们成功地将超冷钠和钾原子结合成双原子NaK分子，并进一步形成了前所未有的四原子分子。这一成果不仅令人兴奋，而且为我们打开了新世界的大门，预示着未来科技的边界将被不断拓宽。
In the study of ultracold molecules, scientists not only face the challenges of experimental design but also have to overcome the difficulties in the cooling process of molecules. Through innovative multi-step cooling processes and precisely controlled microwave irradiation, scientists have successfully combined ultracold sodium and potassium atoms into diatomic NaK molecules, and further formed unprecedented four-atom molecules. This achievement is not only exciting but also opens the door to a new world, indicating that the boundaries of future technology will continue to be expanded.