The smallest particle of an element is typically an atom, which retains the chemical properties of that element. Atoms consist of protons, neutrons, and electrons, and their arrangement and interactions determine the element's characteristics. However, when atoms are split into subatomic particles (like protons and electrons), they no longer exhibit the properties of the original element. Thus, while atoms maintain the properties of the element, smaller particles do not.
The smallest particle of an element that retains the element's properties is the atom. Atoms consist of a nucleus made of protons and neutrons, surrounded by electrons. Each element has a unique atomic structure that determines its chemical properties and behavior. Thus, atoms serve as the fundamental building blocks of matter for each element.
To understand, you first need to understand the difference between an element and a compound. An element is any element from the Periodic table. For example, oxygen. A compound is a substance in which more than one element are bonded chemically. This is not to be confused with a mixture, which is simple a mixture of substances with no chemical bonding. An example of a compound would be water, consisting of hydrogen and oxygen bonded together.Now that we've established to difference between an element and a compound, we can explore what the smallest particle of each is. The "smallest particle" is the smallest you can go while still keeping the properties of the original substance.The smallest particle of an element would be an atom. But when dealing with compounds, if you break them down to atoms, then those atoms don't have the same properties as a compound. The smallest particle of a compound is a molecule. In our example of water, a water molecule consists of two hydrogen atoms and one oxygen atom, chemically bonded together. The molecule, consisting of three atoms, has the chemical properties of water. But if you break it down so you just have an oxygen atom and two hydrogen atoms, none of them would have the properties of the original compound (water).Thus, the smallest particle of an element is an atom, and the smallest particle of a compound is a molecule. The difference between the two is that an atom is an atom, and a molecule is two or more atoms chemically bonded.
The smallest particle of calcium that retains the chemical properties of calcium is the calcium ion (Ca2+). This ion has lost two electrons from a calcium atom, giving it a positive charge while maintaining the chemical characteristics of calcium.
Molecule is the smallest particle that still holds the same compound.
In any element, all atoms are identical in terms of their number of protons in the nucleus, which determines the element's identity. However, atoms of the same element can differ in the number of neutrons, resulting in isotopes.
No, a particle is not the same as an atom. A particle is a small piece of matter, while an atom is the smallest unit of an element that retains the properties of that element.
The smallest particle of an element that retains the element's properties is the atom. Atoms consist of a nucleus made of protons and neutrons, surrounded by electrons. Each element has a unique atomic structure that determines its chemical properties and behavior. Thus, atoms serve as the fundamental building blocks of matter for each element.
An atom.
To understand, you first need to understand the difference between an element and a compound. An element is any element from the Periodic table. For example, oxygen. A compound is a substance in which more than one element are bonded chemically. This is not to be confused with a mixture, which is simple a mixture of substances with no chemical bonding. An example of a compound would be water, consisting of hydrogen and oxygen bonded together.Now that we've established to difference between an element and a compound, we can explore what the smallest particle of each is. The "smallest particle" is the smallest you can go while still keeping the properties of the original substance.The smallest particle of an element would be an atom. But when dealing with compounds, if you break them down to atoms, then those atoms don't have the same properties as a compound. The smallest particle of a compound is a molecule. In our example of water, a water molecule consists of two hydrogen atoms and one oxygen atom, chemically bonded together. The molecule, consisting of three atoms, has the chemical properties of water. But if you break it down so you just have an oxygen atom and two hydrogen atoms, none of them would have the properties of the original compound (water).Thus, the smallest particle of an element is an atom, and the smallest particle of a compound is a molecule. The difference between the two is that an atom is an atom, and a molecule is two or more atoms chemically bonded.
The smallest particle of matter that keeps all the same properties of oxygen is an oxygen atom. If you mean oxygen gas, O2, then it would be a molecule of two oxygen atoms covalently bonded.
An atom. An atom can be split into smaller pieces, but if you do that, you no longer have the same element.
An atom is the smallest piece of an element. Said another way, and element is made up one and only one kind of atoms.
The smallest piece of an element that still retains the properties of the element is an atom. Atoms are the building blocks of all matter and preserve the unique characteristics of each element, such as its chemical behavior and physical properties.
An atom of that element has all the properties of that element.
No, this is a misconception. Atoms are the smallest particles which have the same properties of an element. Smaller still, the nucleus of the atom, it contains the protons and neutrons of the atom, and electrons orbit around the nucleus. Protons and neutrons are made out of even smaller particle, quarks.
Molecule is the smallest particle that still holds the same compound.
The smallest particle of calcium that retains the chemical properties of calcium is the calcium ion (Ca2+). This ion has lost two electrons from a calcium atom, giving it a positive charge while maintaining the chemical characteristics of calcium.