Which of the following statements are correct regarding the general difference between plant and animal cells? 1. Plant cells have cellulose cell walls whilst animal cells do not. 2. Plant cells do not have plasma membrane unlike animal cells which do. 3. Mature plant cell has one large vacuole whilst animal cell has many small vacuoles. Select the correct answer using the code given below:

States that some cells, like onion peel cells, have an extra outer layer called the cell wall — giving an explicit example of plant cells with cell walls.

A student could take this rule (plant cells often have a cell wall) and combine it with outside knowledge about common plant tissues (e.g., onion epidermis) to investigate the chemical nature of that wall (test for polysaccharides typical of cellulose).

Provides a schematic/list distinguishing cell parts and implies 'Cell wall' is an identifiable component associated with plant cells.

Use this list to justify focusing on the cell wall as a defining plant feature, then consult standard biochemical tests or reference texts to check whether that wall is primarily cellulose.

Describes onion peel cells as nearly rectangular and closely arranged — a morphological example supporting that plant cells have rigid outer layers (consistent with presence of a wall).

A student could link rigidity/regular shape to the presence of a polysaccharide-rich wall and then look up which polysaccharide (cellulose) gives rigidity in common plant epidermal cells.

Notes that fungi additionally have a cell wall but lack chloroplasts, showing that having a cell wall is not unique to plants and that different organisms can have cell walls of possibly different composition.

A student could use this pattern to reason that since multiple groups have walls, one should check composition differences (e.g., fungal walls vs plant walls) to test whether plant walls are specifically cellulose-based.

States plant and animal cells differ in shape and structure, underscoring that structural features like walls are key distinguishing traits to investigate.

Use this general rule to prioritize examining structural components (cell wall) and then consult biochemical sources or simple stains to determine if cellulose is the primary constituent.

Explicitly contrasts plant and animal vacuoles: plant cells have a large vacuole; animal cells 'are usually not present, if present, they are usually small.'

A student could combine this textbook rule with basic cell diagrams or microscopy examples to check whether animal cells observed show only small or few vacuoles rather than many large ones.

States many plant wastes are stored in cellular vacuoles, implying plant vacuoles are large and functionally important.

Use this functional distinction (storage of wastes in plant vacuoles) plus knowledge that animals use different excretory strategies to infer why plant vacuoles are large but animal vacuoles need not be.

Explains that plant cells change shape by altering water content (swelling/shrinking), a process consistent with large central vacuoles holding water.

Combine this with the role of vacuoles in storing water to reason that plants require large vacuoles while animal cells (which use muscle proteins for movement) would not rely on many large vacuoles.

Notes plant cells (e.g., onion peel) appear nearly rectangular and closely packed, a morphology often produced by a large central vacuole that maintains turgor and shape.

Compare plant cell shapes seen under a microscope with typical animal cell shapes to test whether the presence of a large vacuole correlates with the rectangular plant cell appearance rather than many small vacuoles in animals.

Gives a general definition of a typical cell (membrane, cytoplasm, nucleus), providing a baseline for comparing organelle presence/absence between cell types.

Use this general cell-structure template plus more specific clues above to survey textbook diagrams or microscopy images to judge whether animal cells commonly contain many small vacuoles.