PSC Load-it Magnetic Tool:
Engineering the Hand Out of the Hazard

01 The Last Few Inches Are the Most Dangerous

In most metal load handling operations, the lift itself is rarely where the hand injury occurs. Overhead cranes, hoists, and lifting equipment are well-understood, well-guarded, and well-regulated. The injury risk is not in the middle of the lift.

The risk is in the final few inches — the moment when a worker reaches in to guide the load onto its seat, to push it into position, to align it against a datum, or to coax it into a recess. At that point, the load is still heavy, still under residual tension or gravitational force, and still perfectly capable of trapping a hand between itself and a hard surface.

This is particularly true in confined or below-grade environments such as pits, channels, trenches, or recessed bays — where the geometry of the work area makes it difficult to stand clear of the load and still exert meaningful directional control over it.

02 The Problem: Hands as the Default Positioning Tool

When a metal component needs to be guided, aligned, pushed, pulled, or seated into its final position, most workers — absent a specific tool or procedure — will use their hands. This is not complacency. It is biomechanical logic. The hand is precise, tactile, and instantly available.

In practice, this means workers are routinely performing tasks such as:

• ▸Pushing a metal plate or bracket into a recess using the flat of the palm
• ▸Guiding a structural component off a crane onto its bearing surface
• ▸Pulling a load back to correct its position after over-travel
• ▸Rotating or angling a load to achieve correct orientation
• ▸Reaching into a pit or below-grade area to seat a component against a ledge or stop

Every one of those tasks places the worker's hand in proximity to a load that has mass, momentum, and in many cases a hard, unforgiving surface on the other side of the hand. The consequence of load movement — even slight, even slow — at that moment can be severe.

03 The Exposure: Pinch Points, Pit Areas, and Line-of-Fire Zones

When the task involves positioning a metal load inside a pit or below-grade cavity, the exposure is compounded. The geometry forces the worker to lean over the pit edge, extend their reach, and apply force from an awkward stance. The following hazard types are commonly present simultaneously:

Standard gloves, while always required, do not change the energy involved when a hand is caught between a steel load and a steel surface. The hierarchy of controls demands that we look beyond PPE and ask whether the hand can be removed from the hazard zone entirely — through an engineered approach.

04 The Engineered Approach: Tool-to-Load, Not Hand-to-Load

The PSC Load-it Magnetic Tool addresses this specific exposure by replacing direct hand-to-load contact with a tool-to-load interface. The concept is straightforward: a permanent magnet mounted at the end of a long pole creates a rigid, controlled connection to a steel load, allowing the operator to push, pull, and position the load from a standoff distance — without reaching into the hazard zone.

In the pit application described here, the proposed configuration is a 550-lb-rated magnet head mounted on a 12-foot (approximately 4-metre) pole. This shaft length is intentional. It places the operator's hands at the top of the pole — at the T-handle — while the magnetic contact point is at the bottom, against the load, inside the pit.

The operator does not lean over the pit. The operator does not reach toward the load. The operator does not place any part of their body into the hazard zone. The tool does it.

How the Tool Interfaces with the Load

The magnetic head is fixed at the tool end — it does not retract, swing, or activate remotely. At 12 feet of shaft length, remote magnetic release from the handle end is not feasible for this configuration, and the tool is designed accordingly. The sequence of operation is as follows:

• 1Contact: The operator lowers the tool into the pit, bringing the magnet head into contact with the flat steel surface of the load. The permanent magnet bonds to the load without any operator action at the handle.
• 2Push: The operator applies forward force at the T-handle, driving the load along the pit floor toward its target position. The tool shaft transmits the force axially.
• 3Pull: The operator applies rearward force at the T-handle to draw the load back if it has over-travelled or requires repositioning.
• 4Position: Fine lateral and rotational adjustments are achieved by angling the shaft and applying leverage at the T-handle. The operator's feet stay outside the pit edge throughout.
• 5Disengage: Once the load is seated in its final position, the operator twists the tool using the T-handle. This rotational action detaches the flex-head magnet from the load surface, allowing the tool to be withdrawn.

06 Tool Configuration for This Application

The configuration proposed for this pit-positioning application has been selected to match the specific demands of the task: a heavy steel load, a below-grade work area, and the need to maintain operator standoff throughout.

The tool head interface — the physical geometry of the magnet contact face relative to the load surface — is an important variable and may require refinement for specific applications. PSC can advise on the appropriate head configuration once the load geometry and surface condition are confirmed.

07 Safety Limitation: Not a Lifting Device

The tool is intended to give the operator directional control over a load that is already supported by a flat surface — a pit floor, a work platform, or a resting surface. The operator pushes, pulls, or rotates the load horizontally or at low angles, with the load's weight borne by the surface beneath it, not by the tool.

Where vertical repositioning or lifting of the load is required, that operation must be performed using certified lifting equipment under a separate lift plan, by qualified personnel, in accordance with the applicable regulations and site procedures.

The PSC Load-it Magnetic Tool helps reduce hand exposure during the horizontal positioning phase. It supports a hands-off approach to the final seating sequence. It does not, and is not intended to, address every hazard present in the work area. A full task-level risk assessment remains the responsibility of the duty holder and the competent person on site.