Your information is a little messy. If you were asking about the characteristics of the light and shadow reflected by minerals, the characteristics of the light and shadow reflected by different minerals were different. For example, metal minerals may reflect a strong, shiny light, and the color of the light may be related to the color of the mineral itself. Some are silver, gold, and so on. Some non-metallic minerals might reflect softer light, and the light and shadow were not as strong. However, you added a " picture video " at the end. I don't know if you want to see a picture video that shows the characteristics of the mineral's reflection or if this is a typing error. Read more exciting novels for free
What pictures are there of the light and shadow reflected by minerals? <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
This isn't related to the novel. Did you give me the wrong information? If it's a video tutorial about the characteristics of the mineral's reflection, you can tell me more details, such as who made it, the general content, and so on. That way, I can integrate the content according to the requirements. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
When light shines on the mineral surface, it can produce optical phenomena such as transmission, absorption, refraction, and reflection. Minerals were composed of simple substances or compounds. There were various binding methods and binding forces between the different particles that made up the minerals. They could usually be divided into coax bonds, ion bonds, metal bonds, molecular bonds, hydrogen bonds, and so on. The outer layer of electrons of transparent minerals (dielectrics) composed of ion bonds, molecular bonds, or hydrogen bonds were bound electrons, which were fixed in a certain crystal lattice position around the ions. When the light wave radiates onto the bound electrons, it creates a forced vibration. Because the ground state and excited state of the electrons have a certain energy level, and the energy difference between most energy levels is larger than the energy of various visible light "photons", most of the visible light enters the mineral transmission, and only a small part of the visible light with the same energy difference is absorbed and the reflected light is very weak. As for the opaque minerals with metal bonds, their free electrons could move freely at the crystal lattice nodes. The energy interval between the electrons was much smaller than the energy of visible light's "photon". At the same time, there were more excited states, and the energy difference was equivalent to the energy of visible light's "photon". Therefore, when visible light hit the metal bond or part of the metal bond mineral surface, it could stimulate the ground state electrons to a certain excited state. The energy of the visible light itself was absorbed, and a part of it was converted into heat energy and consumed. Most of the energy was emitted as strong reflected light when the excited electrons returned to the ground state. In addition, when a beam of white light is reflected or transmitted into a faceting gem, because different colors of white light have different frequencies, they will have different refraction index, so the white light is broken down and presents a series of color spectrums. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
I don't quite understand your expression. You want to ask about the principle of light reflection in minerals, and you also want the relevant pictures? If that was the case, the reflection of light and shadow was mainly due to the crystal structure and chemical composition of the minerals. Different crystal structures and chemical compositions would affect the transmission and reflection of light, resulting in different light and shadow effects. However, I can't directly provide the relevant pictures. You can search for the relevant explanations and pictures through the search engine by entering "the principle of mineral reflection light and shadow". <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
When light shines on the mineral surface, it can produce optical phenomena such as transmission, absorption, refraction, and reflection. Minerals were composed of simple substances or compounds. There were various binding methods and binding forces between the different particles that made up the minerals. They could usually be divided into coax bonds, ion bonds, metal bonds, molecular bonds, hydrogen bonds, and so on. For transparent minerals (dieletes) composed of ion bonds, molecular bonds, or hydrogen bonds, the outer electrons were bound electrons, which were fixed in a certain crystal lattice position around the ions. When the light wave radiates on the bound electrons, it will cause forced vibration. Because the ground state and excited state of the electrons have a certain energy level, and the energy difference between most energy levels is larger than the energy of various visible light "photons", most of the visible light enters the mineral transmission. Only a small part of the visible light with the same energy difference is absorbed and the reflected light is very weak, so the reflection rate of these minerals is very low (<12%>). As for the opaque minerals with metal bonds, their free electrons could move freely at the lattice nodes. The energy interval of the electrons was much smaller than the energy of the visible light "photon". At the same time, there were more excited states, and the energy difference was equivalent to the energy of the visible light "photon". Therefore, when the visible light hit the metal bond or part of the metal bond mineral surface, the ground state electrons could be excited to a certain excited state. The energy of the visible light itself was absorbed, and a portion of it was converted into heat energy and consumed. Most of the energy was emitted as a strong reflection light when the excited state electrons returned to the ground state. Most of the "photons" were reflected, so the reflection rate of these minerals was higher (> 40%). In addition, when a beam of white light is reflected or transmitted into a faceting gem, because different colors of white light have different frequencies, they will have different refraction index, so the white light is broken down and presents a series of color spectrums. For example, the natural fiber of a mineral like sodium-borium ore could act as an optical fiber, transmitting light along its long axis through internal reflection. When a piece of sodium-borium ore was cut into a flat polished surface that was vertical to the fiber direction, a high-quality sample would show any surface image adjacent to the other side. In another case, the principle of spectral signatures suggests that each mineral absorbs and reflects light in a unique pattern, just like fingerprints. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
You only gave me a few words,'Reflection light and shadow comparison photo'. Are you looking for this kind of material? Or was there any other information about these materials that he didn't say? If you are looking for this kind of material, you can go to some material websites, such as Qiantu, Baotu, and Photograph. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
The phenomenon of light and shadow reflected by water is still called "reflection of light", which can be expressed as "light reflection" in English. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
This isn't something related to a novel. You can give me the correct information about the novel so that I can recommend it according to the requirements. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
The reflection of light and shadow on the surface of the water was called the reflection of light. When light shines on the water surface, the water surface is equivalent to a flat mirror. It follows the law of light reflection. The reflection angle is equal to the incident angle, and the angle between the incident light and the plane is equal to the angle between the reflected light and the plane. The reflected light and the incident light are on both sides of the normal line. The reflected light, the incident light and the normal line are in the same plane. The calm water surface could reflect the surrounding light, objects, and so on, forming a specific light and shadow effect. For example, the reflection in the water was formed by the reflection of this light. It was a flat mirror image, and the calm water surface was equivalent to a flat mirror. The image formed was symmetrical to the water surface, and it was an inverted virtual image. If you want to find pictures of such phenomena, you can use a search engine to enter keywords such as " water reflection light and shadow phenomenon ". <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
The water reflection light shadow was mainly based on the following principles: 1. ** Reflection Principle **: - When light rays hit the surface of the water, the surface of the water acted as a medium boundary and would follow the law of reflection. In other words, the angle of incidence was equal to the angle of reflection. The incident angle is the angle between the light ray and the normal line of the water surface (the line that is vertical to the water surface), and the reflection angle is the angle between the reflected light ray and the normal line. - The surface of the water was relatively smooth, which allowed light to reflect regularly on its surface. If the water surface fluctuated, the direction of the reflected light would change with the fluctuation of the water surface, but it still followed the local law of reflection. 2. ** Refraction Principle **: - Water had a higher refraction index than air, and water was a light-dense substance compared to air. When a ray of light slanted from the air into the water, the direction of the ray of light would change. This was the phenomenon of refraction. The angle between the refracted ray and the normal (the angle of refraction) is smaller than the angle of incidence. - Different colors of light have slightly different degrees of refraction in water. For example, in the formation of a rainbow, when white light enters a water droplet (a medium similar to water), it is broken down into seven colors due to the different degrees of refraction of different colors of light. 3. ** Total Reflection Principle **: - When light travels from a dense medium (such as water) to a sparse medium (such as air), if the angle of incidence is greater than a certain critical angle, total reflection will occur. Total reflection allows light to be completely reflected back at the interface when it travels through the water. This is involved in some special optical phenomena or the use of optical fibers to transmit light. As for related pictures or videos, they could be obtained through the following ways: Enter keywords such as "water reflection light and shadow principle" in the search engine, and you can find many pictures and video resources that show the principle of water reflection light and shadow in the form of diagrams, animations, actual shots, etc. These resources can help you understand the above principles more intuitively. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>