1. The trigonal shape of the molecule influenced its reactivity.
2. The crystal exhibited a trigonal lattice structure.
3. The molecule was identified as having a trigonal pyramidal geometry.
4. The trigonal bipyramidal structure of the molecule affected its behavior in solution.
5. The trigonal planar arrangement of atoms in the molecule determined its polarity.
6. The bonding in the molecule was consistent with a trigonal planar geometry.
7. The crystal structure was characterized by trigonal symmetry.
8. The molecule's trigonal shape made it difficult to separate through chromatography.
9. The trigonal bipyramidal geometry of the complex allowed for a variety of coordination modes.
10. The molecule showed trigonal prismatic coordination around the central metal ion.
11. The ligands in the complex arranged themselves in a trigonal pattern.
12. The molecule's symmetry was consistent with a trigonal crystal system.
13. The X-ray diffraction pattern revealed trigonal symmetry in the crystal structure.
14. The ligand's trigonal planar geometry allowed for efficient π-π stacking interactions.
15. The molecule's trigonal pyramidal structure was responsible for its chirality.
16. The trigonal pyramid was a common shape in a variety of biological molecules.
17. The molecule exhibited a trigonal pyramidal shape due to the lone pair on the central atom.
18. The compound's trigonal geometry suggested a preference for two-dimensional growth.
19. The formation of a trigonal crystal system was observed in the sample after cooling.
20. The coordination of the ligands was consistent with a trigonal bipyramidal geometry.
21. The molecule's trigonal planarity made it an effective ligand in coordination chemistry.
22. The three ligands arranged themselves in a trigonal configuration around the central metal ion.
23. The crystal structure exhibited trigonal prismatic coordination around the metal center.
24. The presence of a trigonal pyramid in the molecule made it a potential semiconductor.
25. The molecule's trigonal planar geometry made it ideal for use as a starting material in organic synthesis.
26. The complex exhibited trigonal coordination around the metal center, allowing for chelation of ligands.
27. The crystal structure showed a disorder in the trigonal coordination of the metal ion.
28. The trigonal planar geometry of the molecule allowed for efficient stacking interactions in biological systems.
29. The molecule was found to exhibit trigonal bipyramidal geometry in the gas phase.
30. The crystallographic study showed the presence of trigonal symmetry in the crystal.