
Which ramp buffer is right for your loading bay? A practical comparison instead of product advertising
, 2 min reading time

, 2 min reading time
Not every ramp buffer is suitable for every loading bay. This article shows you how to compare buffer types based on frequency, protection requirements, movement absorption and service requirements – rather than simply deciding based on habit or price.
Many loading points use "what has always been used". This is understandable in everyday life – but with increasing frequency, it is usually not ideal.
The point is not whether a buffer type is "good" or "bad". The point is: Does it suit your load, your protection requirements and your service costs?
„The harder and more robust the buffer, the better.“
That sounds plausible. But for ramps, it is only partially true. Tests have shown that, ideally, the buffer should be as soft as rubber AND as robust as steel.
This is because ramp buffers are not just about robustness, but about the interplay between:
Strengths: good/soft cushioning at the start, often low initial costs
Weaknesses with heavy use: abrasion, shorter service life, lower UV resistance than steel buffers
Useful if:
loading frequency is moderate and maintenance requirements remain manageable.
Strengths: longer service life, more robust front
Risk: protective function may be reduced – damage and costs may shift to other areas, e.g. due to load transfer into the building
Recommended if:
you also evaluate the damping behaviour in real operation and not just the durability.
Strengths: robust designs, good springback in some cases
Limitations: more complex depending on the design, different wear patterns, corrosion issues
Recommended if:
the solution is suitable for the application and service/complexity are taken into account.
Strengths: long life cycle, optimal load dissipation – static load is dissipated dynamically, damping and movement absorption
Limitations: not quite as soft as pure rubber buffers
Important: always check the manufacturer's specifications for your specific application (frequency, installation, damage pattern, substrate)
Question 1: How much will the replacement cost us – not just the buffer?
If the replacement requires several people, downtime or follow-up work, a cheap buffer quickly becomes expensive rather than cheap.
Question 2: What damage do we actually want to avoid?
Just buffer wear? Or also damage to loading technology, building structure and lorries?
Question 3: Does the solution match the actual frequency?
A solution may be acceptable at low frequencies but become uneconomical at high frequencies. Generally speaking, the cheaper the buffer, the lower the cycle count.
Create a simple comparison list for each location:
The right question is not: "Which ramp buffer is the best?"
But rather: "Which type of buffer is the most economical for our loading point under our conditions and offers the best damping performance?"