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was not in use that a physical barrier is present across the loading dock edge, minimizing the fall
hazards to workers or equipment.
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There are a wide variety of products available to provide protective edge barriers for loading docks,
including dock guard posts with a protective heavy duty fabric barrier. The protective fabric barrier is
bright in color and designed to withstand, depending on the barrier, up to 30,000 pounds. The fabric
barrier is anchored by two posts and can be manually retracted into one of the posts when access is
needed to the loading dock section.
In this case, one possible option would be to first create designated locations for trucks to back up to
the loading docks. On each of these designated locations a post would be installed with a fabric barrier
to span across the posts. Guardrails can be installed at the locations of the loading dock that are not
designated as loading areas (Figure 3). Any loading dock safety improvements performed at the
incident location should also be implemented throughout the entire produce distribution center where
appropriate.
Recommendation #3: Manufacturers of forklifts should adopt and implement the concept of
Prevention through Design (PtD) and redesign the operator area of stand-
up counterbalanced forklifts to include restraint systems.
Discussion: The concept of Prevention through Design (PtD), as it would relate to machine
manufacturers, is addressing safety and health needs during the design process to prevent or minimize
hazards that could result in injuries, illnesses and fatalities to machine operators and others.
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Applying
PtD during the design phase of a machine would initiate the process of thinking about how the
machine functions in relation to individuals who would operate, maintain, come in contact or interact
with the machine in order to identify potential hazards. Once hazards are identified, the machine
design can be altered to eliminate or control these hazards. The operators’ areas of stand-up
counterbalanced forklifts pose several well-known design-related hazards and serves as an excellent
example of the potential for eliminating or minimizing injury risks through PtD.
In this case, a stand-up counterbalanced forklift was being operated at the time of the incident. The
typical design of this type of forklift does not include a restraint system for the operator. Therefore,
when stand-up forklift falls off an elevated surface, power unit first, the victim is usually ejected out of
the operator’s area with the forklift landing on top of the victim. In the operator’s manual, the forklift
manufacturer states “tip overs and fall from docks can cause serious injury or even death. Immediately
exit and move away from the truck in these emergencies.” OSHA also references this hazard in their
Powered Industrial Truck eTool that states “operators of stand-up forklifts with rear-entry access
should step backwards off the forklift if a tip over occurs.”
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In this case, the actions these statements
direct the forklift operator to take during a stand-up forklift tip over would not have prevented the
victim’s injuries.
Another injury associated with the design of stand-up forklifts has been lower limb/foot crushing.
These lower limb injuries are related to the operator’s area not having a barrier to keep the operator’s
left leg and foot safely within the operator’s area while the forklift is in use. The stand-up forklift is
also associated with the “under-ride” hazard, where horizontal objects can intrude into the operator’s
area. This hazard is typically associated with forklifts where the overhead guard is equipped with only
two support posts located by the forklift’s mast. This two post design leaves the power unit end of the