Focus Areas:

• Problem landscape analysis
  Understanding the full context of the problem — where it occurs, who is affected, and what gaps exist in current solutions.

• Biological analogues & inspiration mapping
  Searching for natural organisms or systems that already solve similar challenges and documenting how they do it.

• System-level problem diagnostics
  Breaking down the problem into smaller components to see how different factors interact or cause the issue.

• Opportunity spotting
  Identifying potential areas where a new solution, approach, or biological principle could create impact.

Focus Area:

• Bio-to-tech translation
  Explaining how a biological mechanism can be converted into a usable engineering concept.

• Design principle extraction
  Identifying the core working principle from nature that can guide the design.

• Functional modeling
  Sketching or modelling how the solution will function from input to output.

• Early prototype architecture
  Planning the basic structure or layout of what the prototype might look like.

• LO-Fi prototype development
  Creating a lo-fi prototype for validating the solution and concepts.

• Material and component feasibility
  Checking what materials, parts, or tools might be needed and whether they are practical.

Must Include :

1. Sprint Deliverables
   What understanding did you earn after sprint 1 & sprint 2.

2. Technical Problem Background
   Why the problem exists and its scientific/technical context.

3. Proposed Bio-Inspired Solution
   A simple, clear explanation of the idea based on nature.

4. Biological Mechanism Breakdown
   How the chosen natural system works and why it fits the problem.

5. Process Flow / Prototype Blueprint
   A diagram showing the step-by-step functioning of the concept.

6. Required Tools, Components & Materials
   What will be needed if the prototype is built later?

7. Sustainability & Real-World Impact Assessment
   How the idea can help the environment or solve community-level challenges.