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Chapter 19: Problem 7

What are transuranium elements and how are they synthesized?

Short Answer

Expert verified
Transuranium elements are synthetic chemical elements with atomic numbers greater than 92, which are not found naturally. They are synthesized through a series of neutron capture and beta decay processes. Neutron capture increases the mass of an atom without changing its atomic number, followed by beta decay which converts a neutron into a proton, creating a new element. This process can be repeated to create higher atomic number elements. To create heavier transuranium elements, particle accelerators are used to smash atomic nuclei together. However, synthesizing these elements is challenging due to their short half-lives and instability.

Step by step solution

01

Transuranium Elements Definition

Transuranium elements are chemical elements with atomic numbers greater than 92, uranium being the last naturally occurring element. These elements do not exist in nature and are synthetically produced.
02

Neutron Capture

The synthesis of transuranium elements starts with a process called neutron capture, in which an atom captures one or more neutrons. This addition of neutrons increases the mass of the atom but does not change the atomic number.
03

Beta Decay

The atom, after gaining neutrons through neutron capture, undergoes a process called beta decay. In beta decay, a neutron is converted into a proton by emitting an electron (also known as a beta particle). This process increases the atomic number of the atom by 1, effectively creating a new element.
04

Repetition of Process

To synthesize transuranium elements with higher atomic numbers, the neutron capture and beta decay processes are repeated multiple times. Each repetition increases the atomic number of the synthesized element and gets us closer to the desired transuranium element.
05

Particle Accelerator

To speed up the synthesis process and create heavier transuranium elements, scientists use particle accelerators. These machines accelerate atomic nuclei to extremely high speeds and smash them into target nuclei. The collision can result in the creation of new elements, including transuranium elements.
06

Challenges in Synthesis

The synthesis of transuranium elements can be challenging due to short half-lives and instability. Many of these elements decay very quickly, which makes their detection and characterization difficult. Researchers continue to investigate new ways to create and study these elements in hope of gaining a better understanding of their properties and potential applications.

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Most popular questions from this chapter

The only stable isotope of fluorine is fluorine-19. Predict possible modes of decay for fluorine-21, fluorine-18, and fluorine-17.

The curie (Ci) is a commonly used unit for measuring nuclear radioactivity: 1 curie of radiation is equal to \(3.7 \times 10^{10}\) decay events per second (the number of decay events from 1 g radium in 1 s). a. What mass of \(\mathrm{Na}_{2}^{38} \mathrm{SO}_{4}\) has an activity of 10.0 \(\mathrm{mCi}^{2}\) Sulfur- 38 has an atomic mass of 38.0 \(\mathrm{u}\) and a half-life of 2.87 \(\mathrm{h} .\) b. How long does it take for 99.99\(\%\) of a sample of sulfur- 38 to decay?

The radioactive isotope \(^{242} \mathrm{Cm}\) decays by a series of \(\alpha\) -particle and \(\beta\) -particle productions, taking \(^{242} \mathrm{Cm}\) through many transformations to end up as \(^{206} \mathrm{P} \mathrm{b}\) . In the complete decay series, how many \(\alpha\) and \(\beta\) particles are produced?

Given the following information: Mass of proton \(=1.00728 \mathrm{u}\) Mass of neutron \(=1.00866 \mathrm{u}\) Mass of electron \(=5.486 \times 10^{-4} \mathrm{u}\) Speed of light \(=2.9979 \times 10^{8} \mathrm{m} / \mathrm{s}\) Calculate the nuclear binding energy of \(_{12}^{24} \mathrm{Mg},\) which has an atomic mass of 23.9850 \(\mathrm{u}\) .

A recent study concluded that any amount of radiation exposure can cause biological damage. Explain the differences between the two models of radiation damage, the linear model and the threshold model.
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