Microbes host a huge variety of biosynthetic gene clusters that produce an immeasurable array of secondary metabolites with many different biological activities such as antimicrobial, anticarcinogenic and antiviral. Despite the complex task of isolating and characterizing novel natural products, microbial genomic strategies can be useful for carrying out these types of studies. However, although genomic-based research on secondary metabolism is on the increase, there is still a lack of reports focusing specifically on the genus
Pseudomonas
. In this work, we aimed (i) to unveil the main biosynthetic systems related to secondary metabolism in
Pseudomonas
type strains, (ii) to study the evolutionary processes that drive the diversification of their coding regions and (iii) to select
Pseudomonas
strains showing promising results in the search for useful natural products. We performed a comparative genomic study on 194
Pseudomonas
species, paying special attention to the evolution and distribution of different classes of biosynthetic gene clusters and the coding features of antimicrobial peptides. Using EvoMining, a bioinformatic approach for studying evolutionary processes related to secondary metabolism, we sought to decipher the protein expansion of enzymes related to the lipid metabolism, which may have evolved toward the biosynthesis of novel secondary metabolites in
Pseudomonas
. The types of metabolites encoded in
Pseudomonas
type strains were predominantly non-ribosomal peptide synthetases, bacteriocins, N-acetylglutaminylglutamine amides and ß-lactones. Also, the evolution of genes related to secondary metabolites was found to coincide with
Pseudomonas
species diversification. Interestingly, only a few
Pseudomonas
species encode polyketide synthases, which are related to the lipid metabolism broadly distributed among bacteria. Thus, our EvoMining-based search may help to discover new types of secondary metabolite gene clusters in which lipid-related enzymes are involved. This work provides information about uncharacterized metabolites produced by
Pseudomonas
type strains, whose gene clusters have evolved in a species-specific way. Our results provide novel insight into the secondary metabolism of
Pseudomonas
and will serve as a basis for the prioritization of the isolated strains. This article contains data hosted by Microreact.