You Cannot Manage Plants Without Understanding Soil.
We reveal the true condition of
soil through biology-based analysis.
What if the problem lies beneath the surface?
Plants may weaken, yields may decline, and disease pressure may increase. These symptoms are often attributed to fertilizers, crop protection products, or climate conditions. Yet the underlying issue may originate from the soil itself.
Many approaches focus only on visible outcomes. SoilBiom looks deeper, examining the root cause. Where conventional analyses fall short, we begin by understanding the biological structure of the soil.
Our objective is not only to show what is happening, but to explain why it is happening.
What Does SoilBiom Technology Do?
Soil is a living system that extends beyond its physical and chemical properties. To understand this system, we combine eDNA analysis with conventional soil testing methods.
The eDNA approach analyzes genetic traces left by organisms in their environment, revealing the biological diversity present in the soil. This allows us to assess the soil’s biological capacity, its role in nutrient cycles, disease pressure, and key biological indicators linked to plant performance.
These data are not presented in isolation. They are integrated with physical, chemical, and environmental parameters and consolidated into a Soil Health Report. The result is a comprehensive framework that supports informed decision-making in the field.
SoilBiom technology goes beyond monitoring. When needed, analysis results form the basis for planning ecological restoration steps. Biological approaches suited to the crop, soil type, and environmental conditions are determined based on these findings.
Science becomes meaningful not only when it measures soil, but when it guides the right intervention.
What Makes Our Approach Different?
Conventional soil reports are often limited to answering the question, “What is present in the soil?” SoilBiom goes a step further. We focus on what soil organisms do, how they interact with one another and with plants, and how these interactions influence production.
We recognize that each soil, crop, and region has its own dynamics. For this reason, we do not offer one-size-fits-all solutions. Data derived from soil DNA and functional biological traits are interpreted specifically for the site where applications will take place.
Soil samples are compared with regional references and historical data. This approach makes it possible to monitor not only current conditions, but also the progression of improvement over time.
What Do We Actually Do?
Our work begins with the soil sampling process. It is then followed by:
- Analysis of bacteria, fungi, and other biological components present in the soil.
- Measurement of physical and chemical properties, along with evaluation of environmental data.
- Examination of ecological interactions and biological functions.
- Mapping of current soil health status and identification of factors limiting productivity.
- Planning of biological solutions based on crop and soil needs, when required.
- Development of improvement and restoration strategies that are applicable in agricultural and ecological contexts
This approach goes beyond monitoring; it represents an ecosystem-based process of assessment and guidance.
Why SoilBiom Technology?
Biodiversity Mapping
Soil life is analyzed not only in terms of presence, but also through its functions and ecological roles. This makes it possible to understand the soil’s biological richness and its influence on plant performance.
Action-Oriented Soil Health Reports
Nutrient balance, pathogen risk, and plant-supporting biological structures are interpreted in ways that translate directly to field applications. Reports are designed to inform practical decisions.
Decision Support Approach
Soil health status is evaluated alongside regional and historical references. This enables comparable and sustainable agricultural decision-making.
Restoration Strategies
Recommendations are developed according to crop, region, and soil type. Biology, chemistry, and ecology are considered together in planning the improvement process.
Risk and Pathogen Analysis
Concrete data on fungal and bacterial pathogens are provided. The resilience potential of soil and plants against stress factors such as drought, heat, UV exposure, and heavy metals is assessed. This allows plant protection strategies to be planned before problems emerge.
What is eDNA and how is it used in soil health reports?
eDNA (environmental DNA) is a method that analyzes genetic material from organisms present in a soil sample. Compared to traditional observation and culture-based methods, it provides faster, more comprehensive, and more detailed results.
Through eDNA analysis, we assess the entire microbial community rather than focusing on individual organisms. In the Soil Health Report, this method is used to determine microbial biodiversity. It allows us to identify which fungi and bacteria are present, understand their functional roles, and evaluate how they influence soil health and plant development.
Why is microbial diversity important for agriculture?
Microbial diversity plays a critical role in maintaining the essential functions of soil and plants. Microorganisms such as bacteria, fungi, and algae are actively involved in nutrient cycling, water retention, disease suppression, and plant growth support.
Crops grown in microbially rich soils are generally more resilient to stress, use nutrients more efficiently, and show more balanced development. This directly contributes to productivity and long-term soil health.
What is the difference between SoilBiom and traditional (chemical) soil analysis?
Traditional soil analyses measure the levels of macro and micronutrients and mainly focus on the forms that plants can directly absorb. However, they do not reveal the soil’s biological potential or the ability of microorganisms to transform nutrients.
In addition to chemical parameters, SoilBiom analyzes microbial diversity and functional activity. This allows us to evaluate not only current nutrient levels but also how nutrients are transformed and how the system performs in terms of overall productivity. This approach highlights the ecological and functional dimensions of soil health.
Can you distinguish between beneficial and harmful microorganisms for plants?
Microorganisms in nature cannot be strictly categorized as “beneficial” or “harmful.” The same species may perform different roles depending on environmental conditions. For example, certain Fusarium species may cause plant diseases, yet also participate in nutrient cycling and the breakdown of organic compounds in soil.
For this reason, we evaluate microorganisms based on their functions and ecological context rather than fixed labels. In our reports, potentially pathogenic species and biocontrol agents are presented together with reference values, allowing you to better assess disease risk and your crop’s resilience potential.
How accurate are SoilBiom’s data and analyses?
Validated scientific protocols and quality control procedures are applied at every stage, from sampling and DNA extraction to sequencing and data interpretation. All analyses are conducted within accredited laboratory infrastructure.
A high number of DNA sequences are generated for each sample, and results are evaluated against international reference databases. This approach ensures reliability in terms of both accuracy and analytical depth.
What makes the Soil Health Reports actionable?
The Soil Health Report does more than list the microorganisms present in the soil. It evaluates their functional roles and their impact on soil and crop performance.
Biological and chemical data are translated into field-ready recommendations tailored to your crop and management goals. The report provides practical guidance for key decisions such as fertilization, crop protection, and irrigation.
How is disease or pathogen risk calculated?
We analyze fungal and bacterial pathogens in your soil specific to the crop you are growing. Species abundance, functional gene profiles, and ecological context are evaluated together.
The results are compared with crop-specific reference values derived from both healthy and diseased samples. This allows us to assess potential disease risk and support preventive action before yield losses occur.
Can you distinguish between live and dead DNA?
The eDNA method analyzes total DNA present in a soil sample, including genetic material from both living and dead organisms. Therefore, eDNA alone does not directly distinguish viability.
However, by evaluating species abundance, functional gene profiles, and ecological context together, we can make strong inferences about biological activity. When required, additional molecular approaches can be used to further assess active microbial processes.