The desalination process is not only relatively energy-intensive but also affects aquatic species and habitats.
The riparian zone of running water systems is a site of intensive ecological interactions between the aquatic and the terrestrial parts of the ecosystem.
Vibrio cholerae, the etiologic agent of cholera, is autochthonous to various aquatic environments, but despite intensive efforts its ecology remains an enigma.
Vibrio cholerae, the causative agent of cholera, is a natural inhabitant of aquatic environments, but despite intensive efforts its ecology is still poorly understood [4].
The use of briquettes may help reduce the prevalence of the water weed in aquatic bodies and also help reduce the intensive use of wood fuel which usually leads to deforestation.
Moreover, combined intensive aquaculture systems with a closed food loop between herbivorous fishes and aquatic and land plants are being developed which may be suitable for integration into a BLSS of higher complexity.
However, desalinisation is energy-intensive and creates a hyper-saline brine that, when discharged, can harm aquatic ecosystems.
Aquaculture with native species under semi-intensive conditions is a sustainable production alternative that minimizes the impact on aquatic ecosystems.
Exposure to intensive long-term heavy metal pollution can be held accountable for damaging the native aquatic ecosystems [22, 23, 26].
