Questions and Answers on Agricultural and Livestock Systems and SOP solutions

This section brings together the questions that farmers, livestock producers, technicians, supply chains and institutions ask when searching for concrete solutions to improve the functioning of agricultural and livestock systems.

The answers reflect SOP’s approach: systemic, biological and science-based. They are designed to provide operational clarity, process understanding and guidance for informed decision-making.

Frequent questions about SOP Identity and Method

What type of company is SOP?
SOP is a company that develops science-based biological solutions to improve the functioning of agricultural and livestock systems. It works on the biological processes that regulate soil, plants, animals, manure and the environment, through an integrated, applied and measurable approach.
Learn more: The Company
1. Barn environment as the first level of functional prevention Bedding, resting surfaces, cubicles, air, and microclimate represent the primary point of contact between the udder and the environment. When environmental balance is disrupted, biological pressure and functional stress increase, potentially affecting SCC (somatic cell count), milk hygiene, and production stability. Through SOP Biohygienization, farmers can promote:
  • a microbiologically more balanced environment,
  • reduced environmental pressure in critical areas,
  • greater hygienic stability over time, even in the presence of high organic matter.
  • 2. Udder management during sensitive phases of the production cycle Phases such as the dry period, peripartum, and lactation resumption are recognized as delicate moments for udder balance and milk quality. Within the Remedy line, SOP offers tools aimed at the functional and hygienic management of the udder, designed to support farming practices during these sensitive phases:
  • supporting continuity of udder physiology,
  • maintaining more stable environmental and operational conditions,
  • contributing to consistent milk quality indicators over time.
  • This approach aligns with the principles of risk reduction, monitoring, and progressive prevention, without replacing veterinary practices or official health protocols. 3. Animal welfare, milk quality, and system consistency A more stable farming system promotes:
  • greater animal comfort and rest,
  • reduced exposure to environmental and management stress,
  • more efficient udder physiology.
  • Over time, this consistency also reflects on milk quality indicators, including:
  • somatic cell count,
  • bacterial load,
  • milk composition (fat, protein, casein),
  • suitability for PDO supply chains and quality-based payment systems.
  • SOP solutions integrate into a broader system that includes:
  • proper milking routines,
  • continuous monitoring of production and quality parameters,
  • technical and veterinary supervision,
  • risk assessment pathways such as ClassyFarm and SQNBA.
  • Frequent questions about science, data, measurability

    Are the results of SOP solutions measurable?
    Yes. The SOP approach is based on observable and measurable parameters, such as process stability, efficiency in resource use and continuity of results over time. Solutions are applied and evaluated in real operating conditions.
    Learn more: SOP Science & Research
    Which biological parameters does the SOP approach act on?
    SOP works on biological parameters related to: microbiological dynamics environmental balance nutrient utilization stability of fermentation and mineralization processes. These parameters directly influence productive efficiency and management continuity.
    Learn more: SOP Science & Research

    Frequent questions about Manure, Digestate, Emissions

    What does biological manure management mean according to SOP?
    For SOP, biological manure management means considering slurry and digestate as active biological systems. By managing microbiological dynamics, SOP works to improve stability, agronomic quality and emission control, transforming manure into a resource that is functional to the farm system.
    Learn more: Slurry and ammonia

    Frequent questions about Livestock environments, animals, welfare

    Milk quality is not defined by a single indicator, but by the balance between multiple components reflecting the overall functioning of the farming system. In particular, SCC is closely linked to the regularity of:
  • fat content,
  • protein content,
  • casein fraction,
  • technological and production continuity of milk.
  • When the system is coherent and stable, these parameters tend to express themselves more consistently, facilitating milk valorization within PDO supply chains and quality-based payment systems.
    The role of environment and management in indicator stability Environmental and operational conditions influence, indirectly but continuously:
  • the functional response of the udder,
  • animal metabolic efficiency,
  • the regularity of milk quality indicators.
  • More balanced housing environments, combined with coherent management of production phases, create conditions in which:
  • somatic cell count remains more stable over time,
  • milk composition (fat, protein, casein) is more predictable,
  • technological milk quality becomes more readable and traceable.
  • Through SOP Biohygienization and a system-coherence-oriented approach, farmers can work on the foundational conditions that support this stability.
    Milk quality as an expression of the farming system In the SOP model, milk quality is interpreted as an emergent property of the system, not as the result of a single corrective intervention. A well-governed system enables:
  • clearer interpretation of indicators,
  • more effective monitoring,
  • more informed management decisions.
  • This approach is consistent with modern risk assessment and animal welfare pathways such as ClassyFarm and SQNBA, which observe farms as integrated systems of conditions and practices rather than as collections of isolated actions.

    Frequent questions about operational and regulatory context