Modern people cannot avoid calcium loss throughout their lives. Calcium is an essential mineral nutrient for the human body and is abundant in the body. Most of the calcium exists in bones or teeth, and a small amount exists in the blood or inside the tissues in the form of calcium ions. The calcium ion is an indispensable ion to all biochemical processes and physiological activities in an organism. It maintains membrane potential across the biological membrane and normal nerve conduction, triggers muscle contractions, releases hormones, enhances blood coagulation, regulates the rhythm of the heartbeat, and acts as a major mineral component in milk, etc.

Calcium ions have special and significant effects on the nervous system. If the concentration of calcium ions in the blood decreases, the nerves will become overexcited, generating cramps in hands and feet. Therefore, high blood calcium levels can inhibit neural excitation. Blood calcium levels are intricately controlled by parathyroid hormone. If blood levels of calcium drop too low, the body will obtain calcium by extracting it from the bones. On the contrary, if blood calcium levels get high, the extra calcium will be sedimented and stored in the bones or passed out of the body in urine through the kidney so as to keep the calcium in the bones and the blood in a balanced and stable state. Once out of balance, the body will begin to lose calcium, which, in addition to affecting normal biochemical reactions in the body, will further lead to osteoporosis.

Although there are many factors that can result in calcium loss, the fundamental reason comes from an existing structural problem of osteoblasts in the human body. The activity of osteoblasts is higher than that of osteoclasts in the period of childhood and adolescence in modern humans, so there won’t be any problem of bone loss during these stages of growth and development. However, after the developmental period, the activity of osteoblasts will be slightly lower than that of osteoclasts, leading to the beginning of continuous calcium loss, which cannot be avoided all the rest of life.

Though supplementation of calcium through diets can slow down calcium loss, the absorption and utilization of calcium by the human body is affected by many factors, such as imbalance of calcium-to-phosphorus ratios in diets. An excess or deficiency of either element will mutually affect the absorption rate of each other, especially in the case of over intake of foods high in phosphorus, such as carbonated beverages, coffee, hamburgers, French fries, pizza, animal liver, etc., in which the calcium-to-phosphorus ratio can be as high as 1:15. Excess phosphorus will cause the release of calcium from the bones. Modern people love to consume protein-rich foods, such as fish, meat, milk, and eggs, etc., and therefore accumulate too much acidic protein in the body. In order to maintain balance, the body will release calcium from bones to neutralize the acidity. In addition, engaging in work or exercise that consumes a lot of physical strength will also cause the release of calcium from the bones.

All the biochemical reactions in the body of the New Human Line are activated by the Absolutely Constant Energy Source (ACES). The osteoblasts and osteoclasts in the bones always stay in an absolutely constant state of equilibrium and thus the Rigid Carbon-Chitin Compounds can be synthesized throughout the life. These compounds are synthesized in ACES by bone matrix proteins, calcium phosphate, calcium carbonate, calcium fluorine, and chitin, with each component accounting for a ratio of 33.3333% .The equilibrium state of the osteoblasts and osteoclasts in the New Human Line not only allows the bones of the New Human Line to permanently maintain ultra-high hardness, strength, and rigidity, but also let him never have to worry about calcium loss, even in the circumstances of lots of exercise, consumption of physical strength, drinking coffee or taking in more protein, etc.

Reference:

1. Susan, T. (2017). The balance of calcium & phosphorus. Retrieved from https://www.livestrong.com/article/450275-the-balance-of-calcium-phosphate/