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INCORPORATING COLD CHAIN |
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maintenance and optimisation. Long-term value is not only defined by the product itself, but by the quality of technical support, service capability and application expertise behind it.
A key part of this approach is supporting customers in selecting futureready technologies, including systems designed for low-GWP and natural refrigerants. This enables customers to reduce regulatory risk while ensuring long-term availability of components and alignment with evolving industry standards. Ultimately, the objective is to help customers protect their investment over the full lifecycle of the system – not just at the point of purchase.
In an increasingly complex technical and regulatory environment, this also means guiding customers towards solutions that remain efficient, compliant and serviceable over time. BITZER’ s digital ecosystem – including BITZER Software, BEST Software, ePARTS, the SPOT app and the BITZER Digital Network( BDN) – further supports accurate component selection, remote monitoring, efficient maintenance and improved operational transparency. The objective remains consistent: reliable operation, predictable performance and long-term investment security.
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SERVICE EXCELLENCE: THE ROLE OF BITZER GREEN POINT SERVICES
BITZER Green Point Services also play
an important role in ensuring consistent
quality and reliability in the market.
They provide customers with access to
certified workshops, trained technicians
and standardised processes aligned with
global BITZER standards. This ensures that
compressors and components are serviced,
repaired and maintained according to the
correct technical requirements, which is
essential for maintaining performance and
extending equipment life.
For end users, this translates directly into
improved uptime, reduced risk of failure
and greater confidence in long-term system
performance.
Over the lifecycle of a system, components
such as spare parts and oil selection
are equally critical because they directly
influence mechanical integrity, lubrication
and thermal behaviour. Original components
are developed and tested together with the
compressor as part of a complete system.
This ensures compatibility, stable operating
conditions and predictable performance.
LIFECYCLE RELIABILITY / NON-GENUINE AND COPY COMPONENTS
Even small deviations, such as the use
of non-original components or incorrect
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oils, can lead to increased wear, efficiency
losses and reduced compressor lifetime.
These effects typically develop gradually
but have a direct impact on lifecycle cost
and system reliability.
The growing presence of non-genuine or
copy components in the market is therefore
an important consideration for end users.
While these components may appear similar
externally, differences often exist in internal
design, material quality and manufacturing
standards. In practice, this can result in
reduced efficiency, increased wear and a
higher risk of premature failure.
There have been cases where
compressors entered the supply chain
without full traceability, with internal
differences such as reused components and
contaminated oil. This ultimately led to early
failure and increased lifecycle cost. Digital
tools and verified supply channels play an
important role in addressing this challenge.
They enable customers to identify the correct
components, ensure traceability and work
with qualified service partners – all of which
are essential for maintaining system integrity.
For customers, the focus should remain
on long-term reliability, traceability and
system performance rather than short-term
cost savings.
PRIORITIES FOR LONG-TERM PERFORMANCE
Looking ahead, maintaining reliable system
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performance will require a proactive
and structured approach. Key priorities
include preventative maintenance to
minimise unplanned downtime, correct
commissioning practices to ensure optimal
performance from the start, and working
with qualified service partners.
In parallel, there is an increasing need
to adopt future-ready system designs,
particularly those based on low-GWP
and natural refrigerants, to reduce
regulatory exposure and ensure long-term
sustainability. The use of digital tools and
system monitoring further supports early
fault detection and ongoing optimisation.
Ultimately, refrigeration systems are critical
operational assets. Their value is defined by
their ability to deliver consistent, efficient,
compliant and reliable performance over time
– not simply by their initial cost. CLA
Even small deviations, such as the use of nonoriginal components or incorrect oils, can lead to increased wear, efficiency losses and reduced compressor lifetime.
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To be ready and aware the OHS Act calls for yearly site training. The Ammonia Safety & Training Institute( ASTI) from the US are continuingly developing new response programmes and while they are US-regulations-orientated the core remains constant – safety and compliance. I think their latest approach is right on the money in both its concept and application. APCE are looking at rolling out this effective yearly ASTI training programme where there is an ongoing forum for monitoring and assessing responders’ safety and effectiveness. Once every three years is just too long, we forget so easily.
The ASTI Response Training programme is a year-round training framework designed to strengthen ammonia emergency response readiness through a Triad( three groups of responders involved in an incident) collaboration between, one – industry( you the user); two – public safety( emergency response services); and three – local government( OHS Act regulations).
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We have looked at this programme to adapt it to our environment where it follows a Triad leadership model of all the responding services aligning applicable standards, with an emphasis on the ability of the sites emergency staff, the OHS Act and SANS 10147 / Department of Employment and Labour( DEL) compliance and lastly the local emergency services.
The ASTI plan emphasises an active learning policy through monthly training sessions, online lessons, command team drills, tabletop exercises and scenariobased simulations to build confident and capable local ammonia facility and public safety command teams. It also incorporates standardised communication protocols and Incident Command System( ICS) procedures to support safe, consistent, and effective response operations across multiple activities as per SANS 1514 Site Response Plan. So how do we see this shaping up? Triad consideration of ammonia response training to attain shared vision for local response operations that address training topics.
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The following 10 core ASTI topics are part of the training that requires to be addressed by the response groups to attain a shared vision for best-practice ammonia response operations.
• Emergency response planning and readiness for first responder‘ operations’ level parameters as per the Site Emergency’ s Response Pack.
• Hazard zone and command post setup.
• Hazard analysis and resource connection.
• Approved Facility Incident command training that integrates with disaster management expectations.
• Notification and response co-ordination.
• First responder briefing and task readiness.
• Technical response – facility command integration with local authorities.
• Ammonia exposure effects and decontamination.
• Medical triage and local medical facility engagement.
• Community readiness to address the challenges of an ammonia release.
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Andrew Perks is a subject expert in ammonia refrigeration. Since undertaking his apprenticeship in Glasgow in the 1960s he has held positions of contracts engineer, project engineer, refrigeration design engineer, company director for a refrigeration contracting company and eventually owning his own contracting company and low temperature cold store. He is now involved in adding skills to the ammonia industry, is merSETA accredited and has written a variety of unit standards for SAQA that define the levels to be achieved in training in our industry. |