Paralogs example sentences

"Paralogs" Example Sentences

1. Paralogs often arise from gene duplication events.
2. The researchers identified several novel paralogs within the genome.
3. Understanding the functional divergence of paralogs is crucial.
4. Phylogenetic analysis revealed the evolutionary relationships among these paralogs.
5. These paralogs exhibit significant sequence similarity.
6. The study focused on the expression patterns of specific paralogs.
7. Differences in substrate specificity were observed among the paralogs.
8. Paralogs can contribute to functional redundancy.
9. Neofunctionalization is a common outcome of paralog evolution.
10. Subfunctionalization can also occur during paralog diversification.
11. The evolution of paralogs is a complex process.
12. Comparative genomics helps us understand paralog evolution.
13. Many paralogs have lost their original function.
14. Some paralogs have acquired new functions.
15. The identification of paralogs is important for drug target discovery.
16. We used bioinformatics tools to identify potential paralogs.
17. The presence of multiple paralogs can complicate gene expression studies.
18. Detailed analysis revealed subtle differences between the paralogs.
19. These paralogs, although similar, have distinct regulatory elements.
20. Further research is needed to elucidate the roles of these paralogs.
21. The paralogs' functions are not fully understood.
22. Evolutionary pressures have shaped the functions of these paralogs.
23. Analyzing paralogs provides insights into genome evolution.
24. The study compared the enzymatic activity of different paralogs.
25. Mutations in paralogs can lead to disease.
26. The identification of disease-associated paralogs is crucial.
27. Paralogs can be difficult to distinguish using sequence similarity alone.
28. Structural analysis helps differentiate between closely related paralogs.
29. This gene family contains numerous highly similar paralogs.
30. The expression levels of these paralogs vary across tissues.
31. We found evidence of positive selection acting on some paralogs.
32. Gene duplication leading to paralogs is a major driver of evolution.
33. The number of paralogs varies across different species.
34. These newly discovered paralogs may have important biological functions.
35. Computational methods are essential for identifying and analyzing paralogs.
36. Distinguishing between orthologs and paralogs is a common challenge.
37. The research highlighted the importance of studying paralogs in a comparative context.
38. Evolutionary analysis of paralogs can reveal functional constraints.
39. The team used a novel algorithm to detect paralogs in complex genomes.
40. Understanding the regulation of paralogs is a key research area.
41. This suggests that these paralogs have undergone significant functional divergence.
42. The study demonstrated functional differences between the two paralogs.
43. Further investigation is required to determine the specific roles of these paralogs.
44. The observed differences in expression levels suggest distinct roles for the paralogs.
45. This finding expands our understanding of the functional diversity of paralogs.
46. The paralogs showed distinct tissue-specific expression profiles.
47. In conclusion, the paralogs play diverse roles in cellular processes.
48. The presence of multiple paralogs may increase robustness to mutations.
49. Future studies will focus on characterizing the interactions between these paralogs.
50. The analysis revealed a complex interplay between the different paralogs.