ATX, Midi Tower, and Big Tower are all types of computer cases used to house the components of a computer. ATX is a standard size for motherboards and cases, and ATX cases are designed to accommodate ATX motherboards. Midi Tower and Big Tower are different sizes of computer cases, with Midi Tower being smaller and Big Tower being larger. The size of the case determines how many components can be housed inside, as well as the cooling and expansion options available. **

A midi tower with ample space for high-end components such as a full-size ATX motherboard, multiple large graphics cards, and plenty of room for cooling solutions such as liquid cooling or large air coolers would be suitable for high-end components. Additionally, the midi tower should have good cable management options and plenty of space for storage drives to accommodate the needs of high-end components. It should also have good airflow and ventilation to keep the components cool during intense usage. **

A tower is typically considered a tower when it is significantly taller than its surroundings, standing at a height that allows it to be easily visible from a distance. While there is no specific height requirement for a structure to be classified as a tower, it is generally understood to be a tall, freestanding structure that serves a specific purpose, such as communication, observation, or defense. The height at which a structure is considered a tower can vary depending on the context and location, but it is usually several stories tall. **

A tower is typically considered a tower when it is taller than it is wide at its base. This means that the height of the structure is significantly greater than its width, giving it a tall and slender appearance. While there is no specific height requirement for a structure to be classified as a tower, it is generally understood that a tower is a tall, freestanding structure that is used for various purposes such as communication, observation, or as a landmark. **

Copper is lighter than copper oxide. This is because copper oxide is a compound formed by the combination of copper and oxygen, which increases its overall mass compared to pure copper. Therefore, in terms of weight, copper is lighter than copper oxide. **

The chemical formula for copper oxide is CuO, for copper it is Cu, and for carbon dioxide it is CO2. Copper oxide is a compound formed by the combination of copper and oxygen, while copper is an element on its own. Carbon dioxide is a compound formed by the combination of carbon and oxygen. **

Copper sulfide can be broken down into its elemental components through a process called roasting. In this process, the copper sulfide is heated in the presence of oxygen, which causes the sulfur in the compound to react with the oxygen and form sulfur dioxide gas. This leaves behind copper oxide, which can then be further heated in the presence of carbon to reduce it to its elemental form, copper metal. The sulfur dioxide gas can be captured and converted into sulfuric acid or used in other industrial processes. **

Ötzi, the ancient iceman, likely extracted copper from copper ore using a technique called smelting. This process involves heating the copper ore in a furnace at high temperatures to separate the copper from the surrounding rock and other impurities. Ötzi may have used a combination of charcoal and blowpipes to create the necessary heat for smelting. Once the copper was extracted, it could be shaped and used for making tools and weapons. This demonstrates Ötzi's advanced knowledge of metallurgy and his ability to work with metal during the Copper Age. **