(i) Secondary structure of proteins:
The secondary structure of proteins refers to the regular patterns of folding of the polypeptide backbone in a protein. The two most common types of secondary structures are alpha helices and beta sheets. In alpha helices, the polypeptide chain forms a right-handed helix stabilized by hydrogen bonds between the amino acid residues in the backbone. In beta sheets, the polypeptide chain forms a series of beta strands that are stabilized by hydrogen bonds between adjacent strands. The secondary structure of a protein is important for its function and stability, and can be predicted using computational methods based on the protein's amino acid sequence.
(ii) Designer oils:
Designer oils are oils that are modified to have specific properties, such as improved nutritional value or reduced environmental impact. This can be achieved through genetic engineering of oil-producing plants to produce oils with specific fatty acid profiles, or through chemical modification of existing oils. For example, designer oils may be modified to have a higher content of beneficial omega-3 fatty acids, or to have a reduced content of saturated fats. These modified oils have potential applications in food, fuel, and industrial products. However, the safety and regulatory implications of designer oils are still being evaluated.
The secondary structure of proteins refers to the regular patterns of folding of the polypeptide backbone in a protein. The two most common types of secondary structures are alpha helices and beta sheets. In alpha helices, the polypeptide chain forms a right-handed helix stabilized by hydrogen bonds between the amino acid residues in the backbone. In beta sheets, the polypeptide chain forms a series of beta strands that are stabilized by hydrogen bonds between adjacent strands. The secondary structure of a protein is important for its function and stability, and can be predicted using computational methods based on the protein's amino acid sequence.
(ii) Designer oils:
Designer oils are oils that are modified to have specific properties, such as improved nutritional value or reduced environmental impact. This can be achieved through genetic engineering of oil-producing plants to produce oils with specific fatty acid profiles, or through chemical modification of existing oils. For example, designer oils may be modified to have a higher content of beneficial omega-3 fatty acids, or to have a reduced content of saturated fats. These modified oils have potential applications in food, fuel, and industrial products. However, the safety and regulatory implications of designer oils are still being evaluated.