Draft case study

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Brock University *

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SBI4U

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Biology

Date

Jan 9, 2024

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docx

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4

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Par t 1: J. Wellington Wimpy's Dietary Transformation Introduction : In this nutritional analysis, we explore the macromolecules found in J. Wellington Wimpy's meal changes before and after, delving into his gastronomic adventure. Before the Burger Meal Transformation: Pickles, ketchup, mustard, mayonnaise, lettuce, tomato, cheese, and beef patties on a bun. Protein (beef patties), carbs (burger buns), lipids (beef and cheese), and extra carbs (lettuce, tomato, pickles) are examples of macromolecules. Sub bread, turkey or ham slices, lettuce, tomato, cheese, pickles, mayonnaise, and mustard are the ingredients listed after transformation (sub meal). Protein (ham and turkey slices), carbs (bread), fats (meat and cheese), and extra carbs (lettuce and tomato) are examples of macromolecules. Comparatively, both meals probably include lipids, carbohydrates, and proteins. Because of the cheese and beef patties, burger meals may have higher fat; sub meals may contain leaner protein. Vegetables provide vitamins and minerals in both. Sub meal's bread may contribute to higher carbohydrates. Conclusion: There are differences in the macromolecular makeup; the turkey sub has a better balance and is probably a healthier choice. Wimpy might improve his choices by limiting high-fat sauces, eating more vegetables, and switching to whole grain bread. Case Study #2: Lactose Intolerance Patient Background: Carol's inadequate synthesis of lactase enzyme results in lactose intolerance and stomach problems. Yogurt, with its live cultures that aid with lactose digesting, is recommended by her doctor. Part 2: Case Study #1 - Structuring of Carbohydrates Introduction:
Explore the kingdom of carbohydrates, starting with monosaccharides and ending with polysaccharides. Monomers and Polymers: Glycosidic bonds allow disaccharides and polysaccharides to form. Polymerization techniques using dehydration Structure of Proteins: - Polypeptide chains are formed by amino acids Complex structures are shaped by hydrogen bonds, disulfide bridges, and peptide bonds. Monomers and Polymers in Proteins: Polypeptide chains are made of amino acids. differences in sequences that result in different roles for proteins. Protein Structures - Primary to Quaternary: beta sheets, which are tertiary structures. structures quaternary made up of many polypeptide chains. Structure of Fats: Triglycerides containing three fatty acids and glycerol. Saturated and unsaturated fats are necessary for thermal regulation and energy retention. Condensation and Hydrolysis Reactions: Water is released when condensation forms polymers. Using water, hydrolysis breaks down polymers into monomers. Functions of Carbohydrates, Proteins, and Fats: Carbs provide you with instant energy. Proteins function as enzymes, messengers, and structural elements.
Fats for energy storage and insulation. Functional Groups in Biomolecules: carbs contain hydroxyl and carbonyl groups. Proteins contain amino and carboxyl groups. Fats include carboxyl and hydroxyl groups. Case Study #2 - The Enzymatic Dance Introduction: Substrates are guided through complex stages by enzymes, who act as the choreographers of cellular dances. The Induced Fit Ballet: : In the Induced Fit Model, enzymes remodel themselves around substrates. The adaptability of the substrate-enzyme relationship. The Orchestra of Enzyme Regulation: Enzyme activation by conductors. Inhibitors slow down reactions by muting the group. The Activator’s Call: Activators awaken enzymes, leading to increased metabolism. The Inhibitor’s Lullaby: Inhibitors soothe enzymes, slowing down reactions. The Dance of Allosteric Regulation: Allosteric sites affecting enzyme activity. Activators and inhibitors regulating the dance. The Enzymatic Quest: By accelerating processes, enzymes preserve the equilibrium of cells.
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Case Study #3 - The Osmotic Symphony Examine osmosis, cellular transport, and the fluid-mosaic model in the introduction. The Duel between Passive and Active Transport: Molecules travel down the concentration gradient through passive transport. Energy used to move molecules against a gradient is known as "active transport." The Fluid Mosaic Waltz has fluidly arranged lips dancing. Semi-permeability is produced by proteins decorating the membrane. The semi-permeable curtain preserves cellular integrity by allowing tiny molecules to pass through. The guards of the Mosaic: Differentiating proteins acting as guards. guarantees the functionality and safety of the cell. Water molecules passing across the semi-permeable barrier is known as the "osmotic ballet." preserving the integrity and form of the cell. The Chronicles of Transport: Following the concentration gradient is passive transport. Active Transport moves against the gradient