Ghelani H , Khursheed M , Adrian TE , Jan RK .

	Figure 6. Structures of anti-inflammatory polyketides, furanocembranoids, and cembrane diterpenoids derived from sea urchins (structure (14) re-used with permission from [94], Taylor & Francis, 2021; structures (15) and (16) re-used with permission from reference [95], Springer Nature, 2020; structure (17) re-used with permission from reference [96], Springer Nature, 2020).
	Figure 7. Structures of anti-inflammatory macrocyclic compounds derived from sea urchins (structure (18) re-used with permission from reference [97], Elsevier, 2020; structures (19) and (20) re-used with permission from reference [98], Taylor & Francis, 2021).
	Figure 8. Structures of anti-inflammatory miscellaneous compounds from sea urchins (structure (21) re-used with permission from reference [100], Springer Nature, 2013; structure (22) re-used from reference [101]).
	Figure 9. Structures of anti-inflammatory steroidal hexasaccharides derived from starfish Astropecten monacanthus (structures (23) and (24) re-used with permission from reference [107], ACS Publications, 2013).
	Figure 10. Structures of anti-inflammatory steroid derivatives derived from starfish Protoreaster nodosus (structures (25–28) re-used with permission from reference [110], Springer Nature, 2015).
	Figure 11. Structures of anti-inflammatory steroids derived from starfish Astropecten polyacanthus (structures (29–35) re-used from reference [111]).
	Figure 12. Structures of anti-inflammatory triterpenoid glycosides derived from starfish (structures (36–39) re-used with permission from reference [112], John Wiley and Sons, 2016; structure (40) re-used with permission from reference [113], ACS Publications, 2016).
	Figure 13. Structures of anti-inflammatory pentaregulosides (glycosides) derived from starfish Pentaceraster regulus (structures (41–43) re-used with permission from reference [114], ACS Publications, 2016).
	Figure 14. Structures of anti-inflammatory plancipyrrosides (glycosides) derived from starfish Pentaceraster regulus (structures (44–45) re-used from reference [115]).
	Figure 15. Structures of anti-inflammatory astebatheriosides (glycosides) derived from starfish Asterina batheri (structures (46–48) re-used with permission from reference [116], Elsevier, 2016).
	Figure 1. Structures of anti-inflammatory polysaccharides derived from sea cucumbers (structure (1) re-used with permission from reference [36], Elsevier, 2016; structure (2) re-used with permission from reference [14], Elsevier, 2018).
	Figure 2. Structures of anti-inflammatory triterpenoid glycosides derived from sea cucumbers (structures (3) and (4) re-used from reference [47]).
	Figure 3. Structures of anti-inflammatory peptides derived from sea cucumbers (structures (5) and (6) re-used with permission from reference [50], John Wiley and Sons, 2021).
	Figure 4. Structures of anti-inflammatory fatty acid derivatives derived from sea cucumbers (structures (7) and (8) re-used from reference [59]).
	Figure 5. Structures of anti-inflammatory pigments derived from sea urchins (structures (11–13) re-used with permission from reference [85], Elsevier, 2020).

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