
Modern pig production creates ideal conditions for microorganisms: warmth, moisture, organic matter and the continuous presence of animals. These reservoirs increase disease pressure, impair performance and can drive antibiotic use.
High hygiene standards support piglet health and productivity while improving sustainability through lower mortality, fewer treatments and reduced production losses. Programs must be practical and adapted to on‑farm realities.
Swine Prime is an advance hygiene program developed by CID Lines, An Ecolab Company, to cover both surface hygiene and drinking water hygiene. It was evaluated under commercial conditions for effects on hygiene efficacy, piglet outcomes and antibiotic use during maternity and nursery.
Drinking water systems are a major biosecurity challenge. Biofilms – microorganisms embedded in minerals and organic matter – form on the inner surfaces of water lines and can act as persistent pathogen reservoirs.
A longitudinal field study with Iowa State University’s Swine Medicine Education Center found:
In this study, biofilms were sampled and analysed to determine the presence of antimicrobial resistance genes.
Across sampled sites it was demonstrated that:
These results highlighted the importance of cleaning and disinfection during sanitary stop and the continuous drinking water disinfection during production to limit biofilm regrowth, stabilise water quality, and reduce pathogen spread and antimicrobial resistance risk.
The Swine Prime program was evaluated in commercial farm settings in collaboration with Animal Data Analytics (ADA). A total of 2,163 sows and 24,814 piglets were monitored in a before-and-after trial done with control groups and Swine Prime groups.
Two batches of the control group were followed, meaning the farm’s existing hygiene protocol was applied. Six batches applying the Swine Prime program were followed afterwards. Sampling performed every 2 batches during maternity and nursery periods.
Barn hygiene in the control group consisted of an alkaline clean followed by disinfection using glutaraldehyde–QAC, phenolic, or PAA-based products. For water hygiene, hypochlorite- and hydrogen peroxide–based products were used.
In the Swine Prime program, barn hygiene involved cleaning with Kenosan, a strong alkaline cleaner, followed by broad-spectrum disinfection with Virocid. For water hygiene, the drinking water system was cleaned and disinfected using CID 2000.
Sampling was carried out pre‑cleaning (dirty surfaces), post‑cleaning and post‑disinfection. The microbial load (total aerobic bacteria) on surfaces in the environment was monitored and piglet mortality and antibiotic use during suckling and nursery stages.
Surface sampling demonstrated that the Swine Prime program delivered a significantly greater reduction in microbial load compared to the control program, particularly after disinfection. This reflected a more consistent and effective hygiene approach for next production cycles.
The improved hygiene standards achieved through Swine Prime translated directly into measurable production benefits:
During the maternity period
During the nursery period
By lowering environmental pathogen pressure through better surface and water hygiene, piglets experienced fewer health challenges, reducing the need for antimicrobial interventions.
The Swine Prime program contributes to sustainability on multiple levels:
These improvements demonstrate that hygiene is not just a biosecurity measure, but a key driver of sustainable pig production.
Together, the Swine Prime field trial and the biofilm study underline the need for a holistic hygiene strategy that addresses both barn surfaces and drinking water systems.
Under commercial conditions, Swine Prime delivered:
By combining targeted cleaning, effective disinfection and robust water hygiene, Swine Prime offers a practical, evidence‑based approach to improve performance while supporting sustainability expectations.