I'm not sure...I would go with: the atoms in the chair are strong, so empty space is less important because of the weight distribution. Also, my guess would be that the empty space is mainly in an area that doesn't support your weight.
The newest theory to answer this is applied to "How do the stars and planets hang where they are?" See: Dark matter. It is believed now that it is dark matter that holds things together.
I was watching a show on National Geographic that mentioned atoms being mostly empty space. They asked this question but in the context of a batter hitting a ball. The nucleus of an atom is enveloped by electrons which repel other electrons. They also said that because of this, nothing can actually ever touch: there is always a slight gap between objects. The sensation of touch is actually you feeling the repulsion of the electrons.
EDIT: From what I understand the ratio of empty space to solid space between the nucleus of an atom and it's electron is almost an exact ratio in size and distance of the Earth to the Sun. The electron's rotation is what keeps two objects separate. However, if something were vibrating at an entirely different frequency from another thing, it would be capable of passing right through it. The speed of the electron is so extreme that even light is reflected off of it's surface making an object appear to be solid. There are many theories involving alternate dimensions and realities that vibrate on other frequency ranges, exist at the same time and place as we do, but never affect our reality.
CaCl2 is an ionic compound. It is composed of a metal (calcium) and a non-metal (chlorine) bonded together through ionic bonding, forming a crystal lattice structure.
Hemoglobin is an example of a protein with quaternary structure composed of four subunits. Its primary structure consists of a sequence of amino acids, while its secondary structure includes alpha helices and beta sheets. The tertiary structure of hemoglobin is formed through interactions between the subunits, such as hydrophobic interactions and hydrogen bonding, which are influenced by factors like pH and temperature.
Iodine has a crystalline structure composed of diatomic I2 molecules held together by weak van der Waals forces. Each iodine atom in the I2 molecule forms a covalent bond with the other iodine atom through the sharing of electrons. This results in a layered crystal structure with weak intermolecular forces between the layers.
Yes, sodium oxide is a giant ionic compound. It is composed of sodium cations (Na+) and oxide anions (O2-) arranged in a three-dimensional lattice structure through ionic bonds.
A quartz crystal is made of covalent compounds. It is primarily composed of silicon and oxygen atoms bonded together through covalent bonds in a continuous three-dimensional network structure.
through-composed
The hypothalamus is composed of several nuclei, which are groups of neurons with similar structure and function. These nuclei are involved in regulating processes such as body temperature, thirst, hunger, and hormone release through its connections with the pituitary gland.
The walls of the nasal cavity are composed of bone, cartilage, and mucous membranes. The bone and cartilage provide structure and support, while the mucous membranes help warm, humidify, and filter the air as it passes through the nasal cavity.
through composed
Rocks are composed of minerals because minerals are the building blocks of rocks. Minerals are naturally occurring, inorganic substances with a specific chemical composition and crystal structure that combine to form rocks through geological processes such as cooling and solidification of magma, or through the accumulation of sediments.
Simply stated: ProteinsChannels within the structure of the cell membrane are composed of proteins. A protein that forms an ion channel through a membrane is called a transmembrane protein.
Plants constitute 90% of the Earth's total biomass.
No, it is mostly composed in strophic and modified strophic forms.
CaCl2 is an ionic compound. It is composed of a metal (calcium) and a non-metal (chlorine) bonded together through ionic bonding, forming a crystal lattice structure.
Proteins are composed of monomers called amino acids. There are 20 different amino acids commonly found in proteins, each with a unique side chain. These amino acids are joined together through peptide bonds to form the primary structure of a protein.
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Hemoglobin is an example of a protein with quaternary structure composed of four subunits. Its primary structure consists of a sequence of amino acids, while its secondary structure includes alpha helices and beta sheets. The tertiary structure of hemoglobin is formed through interactions between the subunits, such as hydrophobic interactions and hydrogen bonding, which are influenced by factors like pH and temperature.