Figures & data
Figure 5. Simplified urban model (phenotypes) and the associated evaluation grid sensors (colored in red).
![Figure 5. Simplified urban model (phenotypes) and the associated evaluation grid sensors (colored in red).](/cms/asset/40dee899-8ff0-48cf-ba1d-d0af128347fd/taer_a_2377619_f0005_oc.jpg)
Table 1. Simulation settings.
Table 2. Influential design factors.
Figure 6. An example of Pareto-frontier based optimization (Image source: (Pilechiha et al., Citation2020)).
![Figure 6. An example of Pareto-frontier based optimization (Image source: (Pilechiha et al., Citation2020)).](/cms/asset/30a411cb-3118-4529-b095-a6a567e88d88/taer_a_2377619_f0006_oc.jpg)
Figure 9. Parallel Coordinate Plots of the top-ranked individual for Fitness Average (top) and Relative Difference (bottom).
![Figure 9. Parallel Coordinate Plots of the top-ranked individual for Fitness Average (top) and Relative Difference (bottom).](/cms/asset/b7b7344e-7097-4ee5-b6be-4f3017c297c8/taer_a_2377619_f0009_oc.jpg)
Table 3. Multi-responsive design scenarios using RD and FA methods and the utopia solution with their related genes, layouts, values, and chromosomes (from top to bottom).
Figure 10. Parallel coordinate plot (top) and unsupervised machine learning algorithm (bottom) of the Pareto Front solutions.
![Figure 10. Parallel coordinate plot (top) and unsupervised machine learning algorithm (bottom) of the Pareto Front solutions.](/cms/asset/c774f153-3688-4bf6-a6d3-8b8885e72188/taer_a_2377619_f0010_oc.jpg)
Table 4. Variable range of design parameters.
Table 5. Impact size of design parameters on different objectives