Lab Zones: Identify specific areas (e.g., chemical, biological, physical sciences, equipment storage).

Flow of Movement: Consider how students and teachers will move around to maximize safety and efficiency.

Accessibility: Ensure the space is accessible for all students, including those with disabilities.

Future Expansion: Can the lab be expanded or adapted for future needs?

Ventilation: Proper ventilation for handling chemicals, fumes, or heat-producing experiments.

Safety Signs & Instructions: Clear labeling of hazards, safety gear requirements, and emergency exits.

Training: How will students and staff be trained in safety procedures?

Storage Needs: How will equipment, chemicals, and specimens be stored safely and efficiently?

Budget Considerations: What are the cost limitations, and what equipment should be prioritized?

Energy Efficiency: What sustainable design features can be included (e.g., LED lighting, energy-efficient heating/cooling)?

Waste Disposal: How will chemical, biological, and general waste be managed?

Water Conservation: How can water usage be minimized (e.g., efficient sinks, water-saving technologies)?

Green Materials: Are there environmentally friendly materials to use in construction or for lab equipment?

Hands-on Learning: What types of experiments and projects will students be able to do?

Collaborative Space: How will students work together in the lab (e.g., group tables, collaborative spaces)?

Teacher's Role: What specific tools and resources will the teacher need to facilitate learning effectively?

Remote Learning: How can the lab accommodate remote learning or hybrid models (e.g., cameras for live demonstrations)?

Smart Lab Features: Are there opportunities for smart technology in monitoring or managing experiments?

Public Awareness: How can the lab be showcased to the community (e.g., science fairs, open houses)?

Student Involvement: How can students participate in the lab's setup or long-term planning?