genomics applied
Developing genomic tools for animal & environmental insights
Zinto Labs partners with customers to solve complex, real-world challenges with genomics solutions
Multidisciplinary team of PhD scientists, bioinformaticians and molecular biologists in partnership with software architects and engineers
15+ years of delivering bespoke DNA-analysis solutions that provide actionable insights at scale, including biomonitoring tools for environmental impact
End-to-end processes delivered, from sample collection to custom automated reports, handlling up to 10k+ samples per month
Up to 70%+ more species detected than traditional survey methods
Faster, scalable and more accurate
No technical experts required for sample collection
Soil and water biodiversity contributes to ecosystem services such as nutrient cycling, water filtration, pest control, carbon storage, and soil stablization
To comply with regulations and protect Brand reputation, organizations need to be able to assess their impact on biodiversity wherever they operate
Technological advancements mean mapping and assessing soil & water biodiversity from regional to global scales is now feasible
Systematically measuring changes in the soil and water, in a scalable and verifiable manner, is critical to ensuring diversity is continuously preserved, restored or replaced
Soil and water biodiversity includes organisms such as bacteria, fungi, protozoa, insects, and other invertebrates
Appropriate microbial communities for a given location are context-specific - there is no one-size fits all
Assessing and conserving ecosystem health using species abundance, evenness and richness as indicators is critical to reduce biodiversity loss
Environmental DNA (eDNA) analysis now established as a quantitative estimation tool for biodiversity. complementary to standard soil & water tests for organic matter, pH, nutrients and trace minerals
Invasive or Protected Species Detection
Multiple Species Monitoring
Total Biodiversity Measurements
accelerated genetic progress:
Identification of desirable genetics traits (meat production, feed efficiency, disease resistance) at younger age, accelerating genetics progress within a herds.
health & welfare:
Prioritize traits like reproductive health and resistance to diseases, reducing the risk of breeding stock transmitting detrimental traits.
increased efficiency:
Improved genetics can lead to better feed conversion rates, reduced veterinary costs, and lower mortality rates.
long-term sustainability:
Healtheir, more efficient animals are not only economically advantageous but also reduce the environmental footprint of intensive farming.