Environmental Science
Environmental Science combines cutting-edge sequencing technologies like next-generation sequencing (NGS) and mass spectrometry to unravel the intricate relationships between organisms and their habitats. By analyzing genomes, genes, and DNA/RNA samples from ecosystems, scientists gain insights into biodiversity, interactions, and functional processes. However, this work remains challenging due to nature's complexity.
Our multi-omics services empower researchers to assess biodiversity, monitor ecosystems, and understand environmental processes with unparalleled depth. By leveraging multi-omics, environmental scientists can unravel evolutionary relationships, functional traits, and interactions between organisms and their environment. Our end-to-end solutions from sample processing to advanced analytics ensure high-quality, actionable data for publication-ready discoveries.
Our multi-omics services empower researchers to assess biodiversity, monitor ecosystems, and understand environmental processes with unparalleled depth. By leveraging multi-omics, environmental scientists can unravel evolutionary relationships, functional traits, and interactions between organisms and their environment. Our end-to-end solutions from sample processing to advanced analytics ensure high-quality, actionable data for publication-ready discoveries.
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Multi-omics in Environment
Biodiversity Assessment: NGS solutions to rapidly identify and classify organisms in any ecosystem through DNA/RNA sequencing. Gain a comprehensive overview of species diversity and ecological interactions.
Functional Gene Analysis: Target and sequence key functional genes with NGS to understand genetic capabilities like nitrogen fixation and biodegradation within communities.
Environmental Monitoring: Track genetic markers over time to detect invasive species, monitor pathogens, and assess ecosystem health.
Evolutionary Genetics: Study genetic variation, adaptation, and evolutionary relationships in response to environmental change through comparative genomics.
Proteomics can identify proteins involved in microbial degradation of pollutants, reveal microbial responses to environmental changes, and contribute to the development of bioremediation strategies.
Metabolomics, by identifying metabolites in a biological sample, provides a physiological snapshot of an organism. This can be leveraged to understand the effects of environmental stressors on organisms, monitor environmental pollution, and assess climate change impacts on ecosystems.
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