Yes, the liver plays a crucial role in regulating amino acids in the body. It acts as a central hub for the metabolism of proteins, where amino acids are broken down from dietary proteins or muscle turnover. The liver deaminates amino acids, removing their nitrogen-containing amino groups to convert them into keto acids, which can then be used for energy production or synthesizing new proteins. Amino acids in excess can be converted into fatty acids or glucose through gluconeogenesis, demonstrating the liver's flexibility in managing our body's nutrient needs. Additionally, the liver synthesizes non-essential amino acids that the body cannot make and regulates their concentration in the blood, ensuring a balance is maintained for normal physiological functions.

While titanium is known for its strength and durability. alloys can demonstrate some flexibility under certain conditions when they are combined with other metals. It is. however. often said that titanium is more brittle than flexible. When high pressure or external forces are applied. it is more likely to break than bend.

Metal detectors can detect titanium, but the level of detection largely depends on the sensitivity of the detector and the mass of the titanium object. Titanium is a non-ferrous metal, which means it does not contain iron. Most consumer-grade metal detectors are calibrated to find ferrous metals like iron and steel, as well as non-ferrous metals like copper, gold, and silver, which are more electrically conductive than titanium. However, because titanium is less conductive, it may not be as easily detected as these other metals. High-end detectors, especially those with settings adjustable for sensitivity and discrimination, are more likely capable of picking up titanium, especially if the object is of sufficient size. Therefore, while not all metal detectors will readily find titanium, those with higher sensitivity and capable of detecting a wide range of metal conductivity are more likely to do so.