Biotechnology laboratory connected to smart agriculture
Focus platform

From barren ground to living systems.

Biological technologies and autonomous cultivation designed to recover land and multiply agricultural potential.

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01 / OVERVIEW

A new operating system for agriculture

Microbiology, sensing and machine intelligence can work as one system.

Selected bacterial communities can support waste remediation, suppress hazardous biological loads and rebuild the conditions required for fertile soil.

Inside smart greenhouses, sensor networks, cameras, computer vision and predictive models can monitor every growth cycle and guide cultivation with minimal human intervention.

Biotechnology laboratory connected to smart agriculture

A new operating system for agriculture

01

Restore

Treat contaminated organic matter and improve soil conditions.

02

Observe

Continuous sensing reveals stress before it becomes visible.

03

Cultivate

Autonomous systems tune climate, nutrition and timing.

02 / PLATFORM TECHNOLOGY

Microbiological solution «Live Drop»

A single consortium of live microorganisms replaces chemical treatment across effluent and organic waste.

MS «Live Drop» is a universal, environmentally clean and safe preparation developed together with the Gabrichevsky Institute of Microbiology for effluent purification and the processing of organic waste, without disrupting existing technological processes. It functions as a universal bio-coagulant and flocculant.

The solution contains a broad range of aerobic and anaerobic, gram-positive and gram-negative bacteria and microscopic fungi — heterotrophic, oligotrophic, butyric, hydrocarbon-oxidising, oligonitrophilic, nitrifying, denitrifying and cellulolytic groups — together with a large volume of biologically active substances of microbial origin.

7.9pH of the water carrier
+130 mVRedox potential, ORD
21–40Days to full processing
Class 5Reduced waste hazard class
03 / COMPOSITION

Microbial consortium

Core composition of MS-B «Live Drop» — principal genera and species

  • Acetobacter–Rhodobacter group
  • Agrobacterium radiobacter
  • Methylococcus / Clostridium sp. (C. pasteureanum)
  • Pseudomonas fluorescens, P. putida, P. vesicularis
  • Sphingobacterium spiritovorum
  • Sphingomonas adhesiva, S. capsulata
  • Xanthomonas sp.
  • Aeromonas hydrophila
  • Bacteroides fragilis, B. hypermegas, B. ruminicola
  • Desulfovibrio sp.
  • Chlamydia sp.
  • Nitrobacter sp.
  • Cytophaga sp.
  • Micrococcus / Arthrobacter sp.
  • Caulobacter
  • Bacillus subtilis, Bacillus sp.
  • Nocardiopsis
  • C. perfringens
  • Butyrivibrio 1-4-11, 7S-14-3, 1-2-13
  • Bifidobacterium sp.
  • Eubacterium sp., E. lentum
  • Rhodococcus equi, R. terrae
  • Pseudonocardia sp.
  • Ruminococcus sp.
  • Nocardia carnea
  • Actinomadura roseola
  • Aspergillus sp.
  • Propionibacterium jensenii
  • Glomus etunicatum
  • Riemerella, Ochrobactrum
  • Protozoa, Eucaryotes, Planta
  • Gigaspora / Streptococcus mutans, WARB
04 / APPLICATIONS

Where the solution works

01

Water bodies

Cleans polluted natural, artificial and decorative waters — rivers, lakes, seas, ponds, pools and aquariums — resolving algal bloom and putrid odour.

02

Livestock and crop waste

Processes cattle, pig and poultry manure, crop residues, human waste, drilling and oil sludge, and sludge from treatment facilities.

03

Odour neutralisation

Fine-dispersed surface irrigation rapidly removes odour at municipal treatment plants, poultry farms and pig complexes.

04

Municipal effluent

Treats household waste, sanitary-faecal effluent, cesspools and rural toilets.

05

Timber protection

Effective treatment and prophylaxis of wooden surfaces against rot and fungus.

06

Animal nutrition

Improves intestinal microflora and works as a feed additive, supporting faster live-weight gain and feed economy.

05 / EFFLUENT TREATMENT

Sludge lagoons and liquid waste

Complete fermentation of organics with suppressed gas formation.

For sludge maps and lagoons it is sufficient to introduce the preparation and provide mixing and aeration. Under microbial action the organic fraction ferments completely, gas formation is suppressed, and the hazard class of organic waste falls to class 5.

Waste such as sludge and effluent can also be processed without producing soil — fully decontaminated ecologically, then removed to a landfill, quarry or agricultural land without odour. Using the solution for effluent decontamination removes the need for any other preparations, including chemical agents, and reduces operating expenditure.

Application parameters

Parameter Value
Dilution for contaminated soil 1 L solution : 100 L water — chlorine-free water
Post-treatment requirement Mandatory cultivation of the surface to restore air permeability
Sludge lagoon regime Introduce the preparation, then maintain mixing and aeration
Processing period 21–40 days
Resulting hazard class Reduced to class 5
Typical use cases Oil spills, oil sludge storage, landfills, treatment plant sludge
06 / PERSPECTIVES

Ideas translated into operating capability

Soil Microbiology

Working with Beneficial Biological Communities

Microbial communities influence nutrient cycling, organic matter and the conditions around plant roots. Osher investigates how selected biological systems may support healthier soil processes in defined environments. Compatibility, stability and ecological context should guide every formulation pathway. The focus is on functional relationships rather than adding biology without a clear role.

Bioremediation

Biological Routes to Land Recovery

Biotechnology may offer targeted pathways for treating selected organic burdens and restoring productive conditions. We consider microbial and biochemical mechanisms alongside careful characterization of the site. Laboratory insight must be connected to staged evaluation before broader application is considered. This measured approach keeps environmental purpose aligned with scientific discipline.

Smart Greenhouses

Cultivation Guided by Continuous Observation

Controlled environments create an opportunity to connect plant biology with precise operating data. Osher explores sensor networks, imaging and decision-support models that can reveal changes throughout the growth cycle. Automated adjustments should remain traceable and open to informed human review. The aim is cultivation that becomes more responsive as evidence accumulates.

Biological Formulation

From Laboratory Candidate to Usable System

A biological discovery must remain viable through preparation, storage, delivery and application. We focus on formulation questions that connect scientific function with practical use. Carriers, environmental conditions and interactions with existing systems all deserve structured evaluation. Product development succeeds when biological potential can be translated into a repeatable process.

Integrated Agritech

Biology, Sensing and Automation in One Model

Agricultural biotechnology reaches further when it is connected to the way cultivation is actually managed. Osher considers systems in which biological inputs, environmental sensing and operational automation inform one another. Shared data can help teams understand when an intervention is relevant and how conditions respond. Integration turns separate technologies into a more coherent cultivation capability.

“The most advanced technology may be the one that helps nature work again.”
Osher