Lithium Deuteride CAS 13587-16-1

Lithium deuterium is one of the important fuels for nuclear fusion reactions. During nuclear fusion, the nuclei of deuterium (D) and tritium (T) combine to form helium, releasing enormous amounts of energy. Deuterium in lithium deuterium can be converted into tritium through neutron bombardment, providing fuel for nuclear fusion reactions. This characteristic makes lithium deuteride play an important role in nuclear fusion research, especially in inertial confinement fusion (ICF) and magnetic confinement fusion (MCF) experiments.
Application example: In the International Thermonuclear Experimental Reactor (ITER) program, lithium deuterium is considered as one of the potential fuel sources. By optimizing the use of lithium deuterium, the cost of nuclear fusion reactions can be reduced and efficiency can be improved.
Technical challenge: The stability and reaction efficiency of lithium deuterium in nuclear fusion reactions are currently the focus of research. Scientists are exploring how to improve the performance of lithium deuteride through material modification, optimization of reaction conditions, and other means.

Lithium deuterium is an important component of hydrogen bombs. In hydrogen bombs, lithium deuterium serves as fusion fuel and triggers nuclear fusion reactions through the high-temperature and high-pressure environment generated by atomic bomb explosions, releasing enormous amounts of energy.Lithium deuterium has a high chemical energy density and is a potential rocket propellant. In rocket engines, lithium deuteride can react chemically with other oxidants or fuels to produce high-temperature and high-pressure gases, thereby propelling the rocket into flight.Future outlook: With the continuous development of aerospace technology, the demand for efficient and safe rocket propellants is also increasing. Lithium deuterium, as a promising propellant, is expected to play an important role in the future aerospace field.

Deuterium lithium plays an important role in the preparation of neutron sources. Neutron beams can be generated by bombarding deuterium lithium with neutrons, and can be used in scientific research fields such as neutron scattering experiments and neutron activation analysis. In neutron scattering experiments, neutron beams can be used to study the microstructure and dynamic behavior of matter. Deuterium lithium, as a neutron source material, provides stable and reliable neutron beams for these experiments. Compared with other neutron sources, deuterium lithium has the advantages of high neutron yield and adjustable energy, making it uniquely valuable in neutron scattering experiments and other fields.Lithium deuteride is an important material in nuclear reaction research. By studying the interactions between lithium deuterium and particles such as neutrons and protons, we can gain a deeper understanding of the mechanisms and dynamic processes of nuclear reactions. Scientists use experiments and theoretical calculations to study the nuclear reaction cross-section and product distribution of deuterium lithium under different conditions, in order to reveal the inherent laws of nuclear reactions. The study of nuclear reactions is of great significance for understanding the evolution of the universe and developing new energy sources. Deuterium lithium, as an important material for nuclear reaction research, provides strong support for these studies.

Deuterium lithium can serve as a reversible material for storing and releasing hydrogen gas. Although its hydrogen storage capacity is relatively low, the high energy density and potential performance advantages of deuterium lithium make it of certain research value in the field of hydrogen energy. Currently, scientists are exploring how to improve the hydrogen storage capacity and cycling stability of lithium deuterium by optimizing its structure and performance. For example, the hydrogen storage performance of deuterium lithium can be improved through methods such as nanomaterialization and alloying. With the continuous development of hydrogen energy technology, the demand for efficient and safe hydrogen storage materials is also increasing. Deuterium lithium, as a promising hydrogen storage material, is expected to play an important role in the future field of hydrogen energy.

Lithium deuterated materials (such as LiDT) have unique properties such as low density and low atomic number, and can be used as low-energy X-ray scattering and transmission materials. It has important research and application value in fields such as astronomy research and nuclear effect testing. In astronomical research, low-energy X-ray scattering materials can be used to detect X-ray radiation emitted by celestial bodies to study their physical properties and evolution processes. Deuterium lithium material, as a low-energy X-ray scattering material, has unique advantages and potential. Compared with other X-ray scattering materials, deuterated lithium materials have the advantages of low density and low atomic number, making them more sensitive and high-resolution in the field of low-energy X-ray scattering.