How does an electrostatic sphere ion sphere work? Why does the diode next to the ion ball light up?

Plasma balls, also known as glow balls, are also known as ionic magic balls. It has the appearance of a high-strength glass spherical shell filled with a thin inert gas.

such as argon, etc.), glass bulbs** have a black spherical electrode. There is a ** circuit board at the bottom of the ball, which will power 12V low-voltage DC through the power converter.

It is converted into a high-voltage high-frequency voltage and is applied to the electrode.

After being energized, the ** circuit generates a high-frequency voltage electric field, which is radiant due to the ionization of the thin gas in the ball by the high-frequency electric field, resulting in a mysterious color. Due to the high voltage on the electrodes, the light that occurs is a radial glow, which is brilliant and radiant, and looks very good in the dark.

When the glow ball works, it forms a dot-like charge around the electrodes of the ball**.

of the field. When the ball is touched with the hand (the person is connected to the earth), the electric field and electric potential distribution around the ball are no longer uniform and symmetrical, so the glow becomes brighter around the fingers, and the resulting arc swims and twists along the touch of the hand, dancing with the movement of the fingers.

While the plasma sphere is illuminated, it can form negatively charged air ions.

When negative ions bind to germ cells in the air, the germ cells die due to structural changes. In addition, negative ions can be neutralized by negative charges and float in the air with a positive charge.

The smoke and dust will naturally precipitate after making it inactive, and finally achieve the purpose of purifying the air. Negative ions can also neutralize static electricity, effectively reducing electrostatic pollution in the air. And when illuminating, a large number of negative ions moving at high speed will be generated, and under the action of the thermal effect of the light, aerodynamics will be used.

The principle can spread more evenly and effectively to the entire indoor space, and disinfect and purify the environment without dead ends.

In the middle is the Tesla coil, of course, it is also an induction coil, inside is a rare gas, the high-voltage arc ionizes the gas molecules, and there is plasma for a long time. The diode next to it, I don't know what you're referring to.

Principle: The insulator and the metal friction are energized and can be transported with electricity: the motor drives and the belt is energized by friction with the metal brush, on the one hand, the belt carries the trillion source electricity to the upper metal spherical shell, and also transports the charge generated above downward, on the other hand, the metal brush of the base is grounded to guide the accumulated electricity away.

The electrostatic ball should be plugged into the ** electric energy (220V 110V), and the high-voltage static electricity in the ball will be induced by hand, and the discharge spark will be generated in the low-pressure gas in the ball, and a colored light will be formed.

The working principle is that the insulator and the metal friction are energized and can be transported by the Qinqiao mega-load electricity: the motor drives and the belt is energized by friction with the metal brush, on the one hand, the belt is charged to the metal spherical shell above the lease, and the charge generated above is also transported down to the sock, on the other hand, the metal brush of the base is grounded to guide the accumulated electricity away.

The electrode next to the ion sphere emits light due to the proximity of the electrostatic field, and the passing current causes the LED to start emitting light.

LED light emitting principle: LEDs are made of - group compounds, such as GAAS (gallium arsenide), GAP (gallium phosphide), GAASP (gallium arsenide phosphorus) and other semiconductors, and its core is PN junction. Therefore, it has the I-N characteristics of the general p-n junction, that is, forward conduction, reverse cut-off, and breakdown characteristics.

In addition, under certain conditions, it also has luminescent properties. At forward voltage, electrons are injected into the p-region by the n-region, and holes are injected into the n-region by the p-region. A portion of the minority carriers (few) that enter the opposing region reunites with the majority (manyon) and emits light.

There is an electric field next to the electrostatic sphere, which causes the circuit electrons in the diode to move in a directional direction, resulting in an electric current.