We all have our breaking point.
The moment when those four known forces which bind the tiny subatomic particles that hold us together, start to fall apart. The chains of molecules sticking to each other as the electromagnetic force that fastens the positively charged protons weaken, the messenger particles unable to mediate and boom, our protons repel each other, polarity reverses, particles randomise, gravity lets go, structure collapses.
We are strong forces, harnessed. Science and nature exerting its special forces upon us and binding us within the universe; propelling, repelling, charging, pulling… The force of will, force of gravity, force of electromagnetic fields around us, pushing us. Shaping our lives, our bodies, our brains. Mass and energy holding us in orbits influenced by the moon and sun, the constancy of gravity. And yet, we all have our breaking point.
Meteors that gather energy and force as they plummet on random pathways, gathering matter, exploding matter, bringing chaos, destruction.
If everything from people to planets is made of tiny subatomic particles, why don't they fall apart and crumble into piles of particles? What holds all this stuff together?
Particles "stick" together by interacting with one another in complex ways. More specifically, they exert what we call forces on each other.
Electromagnetic force is what holds atoms and molecules together and to each other. The EM force is one of four fundamental forces of nature that we know of. These four forces are the causes of ALL interactions between ALL objects. The other three forces are: Gravity, Strong Force (Also known as the Colour Force) and Weak Force Gravitation (Gravity). The Strong Force is what holds certain subatomic particles together. For example, the nucleus of every atom is full of positively charged protons. Since electric charges repel other electric charges of the same polarity, there must be some force holding them all together. Since there can be over 100 protons in a single nucleus, this force must be VERY strong in order to keep them together. This is why it's named the "Strong" force!
Molecules are made up of atoms, which are made up of subatomic particles. Your body is made up of molecules chained together in many different ways. However, many of these molecules are used in different places
Reference: https://www.physicsforums.com/threads/what-keeps-an-object-together.660247/
Reference: https://www.physicsforums.com/threads/what-keeps-an-object-together.660247/
The tiny particles that make up matter, such as atoms and subatomic particles, also exert forces on one another. These forces are not gravity, but special forces that only these particles use.
There are several kinds of forces that particles can exert on one another. These forces can cause one particle to attract, repel, or even destroy another particle. For example, one kind of subatomic force, known as the strong force, binds quarks together to make protons, neutrons, and other particles.
https://www.exploratorium.edu/origins/cern/ideas/standard2.html
Each force is described on the basis of the following characteristics: (1) the property of matter on which each force acts; (2) the particles of matter that experience the force; (3) the nature of the messenger particle (gauge boson) that mediates the force; and (4) the relative strength and range of the force.
The weakest, and yet the most pervasive, of the four basic forces is gravity. It acts on all forms of mass and energy and thus acts on all subatomic particles, including the gauge bosons that carry the forces. The 17th-century English scientist Isaac Newton was the first to develop a quantitative description of the force of gravity. He argued that the force that binds the Moon in orbit around Earth is the same force that makes apples and other objects fall to the ground, and he proposed a universal law of gravitation.
Consider how Isaac Newton's discovery of gravity led to a better understanding of planetary motion Britannica.com
According to Newton’s law, all bodies are attracted to each other by a force that depends directly on the mass of each body and inversely on the square of the distance between them. For a pair of masses, m1 and m2, a distance r apart, the strength of the force F is given by
F = Gm1m2/r2.
G is called the constant of gravitation and is equal to 6.67 × 10−11 newton-metre2-kilogram−2.
The constant G gives a measure of the strength of the gravitational force, and its smallness indicates that gravity is weak.