When iodine is heated, it sublimates, meaning it transitions directly from a solid to a gas without becoming a liquid. This gas appears purple due to the specific wavelengths of light absorbed and emitted by iodine molecules. The purple color is a characteristic feature of iodine vapor, making it easily identifiable. Upon cooling, the purple gas can condense back into solid iodine, forming dark purple crystals.
Iodine is a purple-black non metal that changes to a deep purple gas when heated.
When iodine is heated, it sublimates and forms a purple gas known as iodine vapor. This vapor is composed of diatomic iodine molecules (I2) and has a distinctive violet color. The purple gas is an indicator of iodine's transition from solid to gas without passing through a liquid state. Iodine vapor can be harmful if inhaled, so safety precautions should be taken when handling it.
The halogen that forms a purple vapor when heated is iodine. When iodine crystals are heated, they sublimate, transitioning directly from a solid to a gas, producing a characteristic violet or purple vapor. This property is due to the molecular structure of iodine, which allows it to easily vaporize at elevated temperatures.
Sublimation refers to the process where a substance transitions directly from a solid to a gas without passing through the liquid phase. Chlorine gas (Cl2) does not sublimate because it exists primarily as a gas at room temperature, while iodine (I2), which can sublime, transitions from solid to gas when heated. When iodine is heated, it produces violet vapors as it sublimates. Thus, while Cl2 does not undergo sublimation in typical conditions, iodine does.
Iodine is the halogen element that forms sublime crystals. In its solid state, iodine appears as shiny, purple-black crystalline flakes, which can transition directly from solid to gas without passing through a liquid phase, a process known as sublimation. This property makes it unique among the halogens and useful in various applications, including medicine and photography.
Iodine is a purple-black non metal that changes to a deep purple gas when heated.
When iodine is heated, it sublimes directly from a solid to a purple gas. The gas produced is diatomic iodine molecules (I2).
The purple gas formed when heating solid iodine in a test tube is iodine vapor. Iodine sublimes directly from a solid to a gas when heated, turning into a purple gas that condenses back into solid iodine crystals when cooled.
When iodine is heated, it sublimates and forms a purple gas known as iodine vapor. This vapor is composed of diatomic iodine molecules (I2) and has a distinctive violet color. The purple gas is an indicator of iodine's transition from solid to gas without passing through a liquid state. Iodine vapor can be harmful if inhaled, so safety precautions should be taken when handling it.
The purple gas that forms when heating iodine crystals is called iodine vapor.
It gets further apart and turns into a pink purple colour
The three states of iodine are solid, liquid, and gas. At room temperature, iodine is a solid with a dark purple color. When heated, it sublimes directly from a solid to a purple-violet gas.
Im pretty sure that Iodine does though not 100% sure. Are you talking about an element or a compound?
The halogen that forms a purple vapor when heated is iodine. When iodine crystals are heated, they sublimate, transitioning directly from a solid to a gas, producing a characteristic violet or purple vapor. This property is due to the molecular structure of iodine, which allows it to easily vaporize at elevated temperatures.
This is also iodine, as a gas.
When iodine is heated, it sublimes from a solid state directly into a purple-colored gas. It undergoes sublimation, which means it changes from a solid to a gas without passing through the liquid state.
The sublimation of iodine crystals to produce purple gas is a physical change. This is because the change in state from solid to gas does not involve a change in the chemical composition of the substance. The purple color of the gas is due to the absorption and emission of specific wavelengths of light by the iodine atoms.