Demineralization of a tooth is the process in which minerals, primarily calcium and phosphate, are lost from the tooth enamel due to the acidic environment created by bacterial plaque. This occurs when sugars from food are metabolized by bacteria, producing acids that erode the enamel. If not reversed through remineralization, this process can lead to tooth decay and cavities. Maintaining good oral hygiene and a balanced diet can help prevent demineralization.
Cavities are scientifically known as dental caries. They are caused by the demineralization of tooth enamel due to bacterial activity in the mouth, leading to the formation of decayed areas in the teeth.
Fluorine makes teeth resistant to tooth decay by strengthening the enamel. It helps protect against the demineralization process caused by acids produced by bacteria in the mouth.
The tissue of the tooth that is incapable of growth after complete development but can undergo remineralization is enamel. Once fully formed, enamel cannot regenerate or grow, but it can regain minerals lost due to demineralization through the process of remineralization, often aided by fluoride and saliva. This ability helps repair early stages of tooth decay.
Any substance that is has a low pH value(specially 1-6, any value under 7) would help promote demineralization of the teeth. Substances such as lemon juice, white vinegar and carbonated drinks are highly acidic, having pH value's of 3 or below, meaning that these types of substances will promote the process of deminerlization becasue acidic substances break down tooth enamel, making the teeth weaker and more prone to demineralization.
Its calcium deficiancy of the lower jaw.
caries caries Dental caries is a bacterial disease that begins with demineralization of the outermost dental enamel and progresses, if not halted, to loss of tooth substance and infection of the dental pulp. Demineralization begins with acid formation in dental plaque, the acid being a by-product of the metabolism of simple carbohydrates (sugars, cooked starches) by certain plaque-resident bacteria, principally the mutans streptococci. If demineralization is not checked, it leads to tissue loss and further bacterial penetration. The carious process is reversible in the early demineralization stage: Fluoride and other minerals in plaque can buffer the acid and lead to remineralization of the early lesion. Prevention of dental caries, therefore, is based on promoting an intra-oral environment in which demineralized enamel can quickly be remineralized, and where plaque pH does not remain below neutral for prolonged periods. FARHAN ALI Dental decay caused by attack on the tooth enamel by acids produced by bacteria that are normally present in the mouth. Sugars in the mouth promote bacterial growth and acid production; http://www.answers.com/topic/sucrose specifically promotes http://www.answers.com/topic/plaque-forming bacteria, which cause the most damage. A moderately high intake of http://www.answers.com/topic/fluoride increases the resistance of tooth enamel to acid attack. See also http://www.answers.com/topic/tooth-friendly-sweets. farhan ali pharmacist
NO
Is called Osteoporosis and results in brittle Bones.
Is called Osteoporosis and results in brittle Bones.
so how do you like OLP?
yes the sugar in soda is a MAJOR cause of tooth decayBut its indirect. Sugar itself does not harm tooth enamel. But sugar, in any food, feeds bacteria that live in your mouth. These bacteria multiply rapidly and they then secrete acids that dissolve tooth enamel. Good dental hygiene will kill most of the bacteria. Just cutting out sugar in sodas will not stop tooth decay as natural sugars are found in most foods.the other reason that tooth decay is caused by soda is the acidity. it is so acidic it can literally eat away at your teeth. people who drink 3 or more sugary sodas daily have 62% more tooth decay than people who dont.
The medical term for the removal of lime salts from osseous tissue is "demineralization." This process can weaken bones and lead to conditions like osteoporosis.