An external electric field, meeting it and passing through it

An external electric field, meeting it and passing through it

22/09/2025
22/09/2025

An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.

An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it
An external electric field, meeting it and passing through it

Hear the profound vision of Johannes Stark: “An external electric field, meeting it and passing through it, affects the negative as much as the positive quanta of the atom, and pushes the former to one side, and the latter in the other direction.” In this teaching lies not only the language of science but the language of balance, the eternal dance of opposites. For in every atom, the smallest foundation of the universe, we see the law of duality—negative and positive, pushed apart by unseen forces, yet bound together in harmony.

The ancients, though they knew not the atom, intuited this truth in their myths. They spoke of light and shadow, of fire and water, of male and female—forces equal and opposite, moving in eternal tension. What Stark revealed through science was what sages proclaimed through symbol: that creation itself is woven from the interplay of opposites, stirred by the invisible hand of energy, the external field that shapes all things.

Consider, as an example, the compass of human society. When a great external force presses upon a people—be it war, famine, or revolution—it pushes factions apart: the fearful to one side, the courageous to the other. Yet both are part of the whole, and only through their interaction does the destiny of a nation unfold. Just as the quanta are divided by the field, so are people moved by history’s current.

Stark’s insight gave birth to what became known as the Stark Effect, a cornerstone of physics, but its meaning transcends laboratories. It teaches that every force, when applied, will reveal the hidden nature of what it touches. The atom, once seemingly indivisible, is shown to carry within itself tension, polarity, and structure. Likewise, the human soul, when pressed by trial, reveals its true divisions—its fears and its hopes, its darkness and its light.

So let the generations remember: in every smallest particle of the cosmos lives the pattern of the whole. Negative and positive, though opposed, are not enemies but companions, and the external fields of life that buffet us do not destroy but reveal what we truly are. To understand this is to understand not only the secrets of the atom, but the eternal rhythm of existence itself.

Johannes Stark
Johannes Stark

Physicist April 15, 1874 - June 21, 1957

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Have 6 Comment An external electric field, meeting it and passing through it

VLVu Long

Johannes Stark’s explanation of how an external electric field affects the positive and negative quanta within an atom is a fascinating glimpse into the underlying forces that govern atomic structure. It makes me wonder how these interactions might impact the behavior of atoms in larger systems, such as in molecular chemistry or even in quantum computing. How much of this knowledge has influenced modern science, and are there practical applications that utilize this principle?

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HHuy

The idea that an external electric field can push both positive and negative quanta in opposite directions is a great demonstration of the delicate balance in atomic interactions. But does this imply that atoms are inherently unstable, or is this a natural response to external forces? I’m curious whether this principle applies only in certain conditions or whether it’s a fundamental aspect of atomic behavior in all environments.

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DDtrinh dang duong

Stark’s description of how an electric field affects the charges in an atom is very thought-provoking. The idea that the negative and positive quanta are pushed in opposite directions seems to suggest a balance between opposing forces. I wonder if this interaction is universal across all atoms, or are there specific conditions under which this phenomenon becomes more pronounced? How does this influence the behavior of atoms in different environments?

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HADinh Hoang Anh

Johannes Stark’s statement about electric fields affecting both positive and negative quanta of an atom is a reminder of how external forces can influence atomic particles. But what really catches my attention is the idea that the field pushes the charges in opposite directions. How significant is this phenomenon in real-world applications? For example, how does this effect play out in devices like capacitors or in the study of particle physics?

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CBNguyen Chi Bao

This quote seems to highlight how external forces, like electric fields, interact with atomic particles. It’s fascinating that Stark notes how both positive and negative charges are affected differently by such fields. Does this imply that atoms are more malleable than we might assume, or is this effect limited to certain conditions? I’m curious how these principles are applied in practical technologies like semiconductors or in the development of quantum mechanics.

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