Nothing. Chemistry is for fools.
A light bulb produces a more focused light output which can be beneficial for specific plant growth stages. It also generates less heat, allowing it to be placed closer to the plants without risk of damage. Additionally, light bulbs typically have a longer lifespan compared to fluorescent lights.
its the souce of light offered from a tube light.... its white light, with all spectrum of colours
The ability of certain matter to absorb visible light is known as absorption. When light interacts with a material, some wavelengths are absorbed by the material while others are reflected or transmitted. Each material has a unique absorption spectrum, which determines which wavelengths of light it can absorb.
No, incandescent light bulbs do not produce full spectrum light as they lack the full range of color temperatures found in natural sunlight. Full spectrum lamps typically use fluorescent or LED bulbs to simulate natural daylight and provide a more balanced light for tasks such as reading or artwork.
When any element is excited to the point where it emits visible light, it emits a unique spectrum. The mercury in a florescent lamp emits a spectrum in the ultraviolet spectrum. It excites phosphorus powder on the inside of the bulb. The ultraviolet rays strike the phosphorus and it emits white light. Sodium emits yellow light. Potassium emits purple light. Sodium actually emits two different yellows. Each element emits several different colors.The above is not wrong, but it doesn't really answer the question. I believe the answer the poster was looking for is emission spectrum.You may be correct. I have no intention of giving the emission spectrum of every element. I only wished to help the questioner understand what happens when an emission spectrum is produced. I had the idea that the questioner had the idea that every element produced the same emission spectrum. We interpreted the question differently.
The fluorescent light emission spectrum determines the colors produced by a fluorescent light source. Different elements in the phosphor coating of the bulb emit light at specific wavelengths, which combine to create the overall color of the light. The emission spectrum influences the perceived color of the light emitted by the bulb.
Fluorescent lights emit a spectrum of light that includes a range of colors. The quality of light emitted by fluorescent lights can be affected by the specific mix of colors in the spectrum. This can impact how natural or artificial the light appears, as well as how well it renders colors in a space.
The spectrum of fluorescent light consists of multiple narrow peaks of visible light, typically in the blue and green regions of the spectrum. Fluorescent lights emit a mix of ultraviolet light that excites phosphors coating the inside of the tube or bulb, which in turn re-emit visible light. The resulting spectrum can vary slightly depending on the specific phosphors used in the bulb.
Yes, plants can grow with fluorescent light as their primary source of illumination. Fluorescent lights provide the necessary light spectrum for photosynthesis, allowing plants to grow and thrive.
Yes, plants can grow under fluorescent light, but they may not grow as well as they would under natural sunlight or specialized grow lights. Fluorescent lights provide some of the necessary light spectrum for plant growth, but they may not be as intense or have the full spectrum of light that plants need for optimal growth.
Yes, plants can grow under fluorescent light, but they may not grow as well as they would under natural sunlight or specialized grow lights. Fluorescent lights provide some of the necessary light spectrum for plant growth, but they may not be as intense or have the full spectrum of light that plants need for optimal growth.
Yes, plants can grow in fluorescent light, but they may not grow as well as they would in natural sunlight or full-spectrum grow lights. Fluorescent lights provide some of the necessary light spectrum for plant growth, but they may not provide enough intensity or the full range of light wavelengths that plants need for optimal growth.
Indoor fluorescent light is not as bright as sunlight, and it is usually not exactly the same color (although there are different types of fluorescent tubes that produce different colors, some of which are extremely close to sunlight).
Fluorescent lights emit a spectrum of visible light that typically includes various wavelengths in the blue and green regions, with smaller amounts in the red and violet regions. They also emit ultraviolet light, which is not visible to the human eye but can cause fluorescence in certain materials.
The spectrum from daylight or fluorescent light is called continuous because it contains a smooth and uninterrupted range of colors across the visible light spectrum. This means that all wavelengths within the visible light range are present without gaps or missing portions, unlike the discrete lines seen in some other types of lighting spectra.
Yes, plants can grow under fluorescent lights because they provide the necessary light spectrum for photosynthesis to occur.
The spectra of daylight and fluorescent light differ primarily in their distribution of wavelengths. Daylight produces a continuous spectrum with a balanced range of wavelengths, including most colors of the visible spectrum, resulting in a natural and full-spectrum illumination. In contrast, fluorescent light emits a more discrete spectrum, characterized by distinct peaks at specific wavelengths due to the excitations of gas and phosphors, which can lead to a less balanced color rendering and sometimes a cooler appearance. This difference affects how colors are perceived under each type of light.