well how big is the balloon?
There are 20 atoms and there are 6 Carbon atoms, 8 Hydrogen atoms, 6 Oxygen atoms.
All matter contains positive protons and negative electrons. When you bring a positively charged balloon close to a neutral wall, the wall becomes polarized. The electrons in atoms move colser to the balloon, making the near side of the wall seem negatively charged and farther components seem positive charged. This has a net attractive force on the balloon.
four carbon atoms
There are two bromine atoms in Br2
There are a total of 9 atoms in CCl2F2: 1 carbon atom, 2 chlorine atoms, and 2 fluorine atoms.
Incalculable. Trillions upon trillions.
An air balloon is primarily made of polymer materials, which are composed of long chains of carbon atoms along with hydrogen, oxygen, and nitrogen atoms. The air inside the balloon consists mainly of nitrogen and oxygen atoms, along with trace amounts of other gases like carbon dioxide and argon. Thus, the balloon's material and the air within it are made up of various combinations of these atoms.
When a balloon is rubbed with a wool cloth, the electrons from the atoms of the wool cloth enter the atoms of the balloon and thus, the number of electrons in the atoms of balloon becomes more than the number of protons. Hence, there is a net negative charge in the balloon, whereas in the wool cloth the number of electrons in its atoms become less than the number of protons, hence there is a net positive charge on the wool cloth.
In a balloon filled with helium gas, the helium atoms are evenly distributed throughout the available space. They move freely and randomly due to their kinetic energy, colliding with each other and the balloon's inner walls. This distribution results in a uniform pressure inside the balloon, as the helium atoms exert force equally in all directions. Over time, if the balloon is not tightly sealed, some helium atoms may escape, leading to a decrease in pressure and volume.
When a balloon is rubbed with a wool cloth, electrons are transferred from the wool to the balloon, giving the balloon a surplus of electrons, making it negatively charged. Wool has a higher affinity for electrons compared to the balloon material, which results in the transfer of electrons and the creation of a negative charge on the balloon.
When a balloon is rubbed with a wooden sleeve, it gains a negative charge. This happens because electrons are transferred from the atoms in the wooden sleeve to the atoms in the balloon, leaving the balloon with an excess of electrons and thus a negative charge.
A balloon is primarily filled with air, which consists of a mixture of gases, predominantly nitrogen and oxygen molecules. These gas molecules are made up of atoms, specifically nitrogen (N2) and oxygen (O2) particles. When inflated, the balloon contains these gas particles that move freely, creating pressure against the balloon's inner walls. Additionally, if the balloon is filled with helium, it contains helium atoms (He) instead of air molecules.
To find the number of moles of helium, you can use Avogadro's number, which is approximately (6.02 \times 10^{23}) atoms per mole. Divide the total number of helium atoms ( (6.02 \times 10^{25}) atoms) by Avogadro's number: [ \text{Moles of helium} = \frac{6.02 \times 10^{25} \text{ atoms}}{6.02 \times 10^{23} \text{ atoms/mole}} \approx 100 \text{ moles}. ] Thus, there are about 100 moles of helium in the balloon.
It depends on how long it takes for the charge to diminish so that it can no longer hold the balloon against gravity. Principal factors will be the conductivity of the balloon's material, and the humidity of the air.
Heat causes more activity in the atoms inside the balloon. This causes expansion as they are bouncing around inside more than when they were cold. They need more room. The expansion causes failure in the balloon.
It depends on what kind of balloon.
The balloon becomes statically charged when rubbed against hair or clothing, attracting the neutral paper bits. This is due to the static charge on the balloon causing an electrostatic force between the balloon and the paper, causing the paper bits to stick to the balloon.