• LP 3.1: How to evaluate environmental disturbances and model how ecological communities transition through primary and secondary succession scales.
• LP 3.2: How to construct and interpret double-axis climographs (mapping temperature line graphs alongside precipitation bar graphs) to identify regional weather patterns.
• LP 3.3: How global temperature and precipitation barriers interact to determine the boundaries of world biomes and dictate necessary plant adaptations.

• DCI: LS2.A (Interdependent Relationships in Ecosystems); LS2.C (Ecosystem Dynamics, Functioning, and Resilience): Investigating how communities respond to setbacks, compete for resources, and stabilize over time.
• SEP: Developing and Using Models; Analyzing and Interpreting Data: Constructing double-axis climatic graphs and evaluating ecological secondary succession sequences.
• CCC: Stability and Change; Patterns; Cause and Effect: Mapping how physical abiotic climate constraints create predictable biological patterns and trigger specific evolutionary adaptations across local and global scales.

 

4.a. Demonstrate Patterns - Graphical: Generating accurate double-axis climographs by plotting raw metric data—mapping monthly precipitation as vertical bar graphs alongside monthly average temperatures as continuous line graphs.

4.b. Compare Data - Consistency: Evaluating data consistency across distinct geographical climate tables and biome profiles to determine global environmental limits.

5.c. Use Evidence/Theory - Reasoning: Synthesizing ecological principles (such as nutrient accumulation and pioneer communities) to explain how an ecosystem transitions toward stability after a setback.

5.d. Present Arguments - Defend/Refute: Constructing an interconnected concept map that follows strict structural rules to defend or refute claims regarding successional tracks, climatic drivers, and matching plant adaptations