Bollard Installation JHA (Job Hazard Analysis / Activity Hazard Analysis)

Updated 2026-06-23

A Bollard Installation JHA (Job Hazard Analysis / Activity Hazard Analysis) is the plan that keeps the crew installing bollards from striking a utility excavating the footings, straining handling the heavy steel bollards and concrete, or being struck by traffic at the roadway and entrance locations. Bollard installation puts in the protective and security posts — fixed, removable, and crash-rated — that protect buildings, pedestrians, and equipment from vehicles, combining footing excavation (utility strikes), the heavy bollard and concrete handling, and the traffic exposure at entrances and roadways. This guide walks through building a Bollard Installation JHA that names the excavation, lifting, and traffic hazards and assigns the utility-locating, handling, and traffic controls that hold up in the field.

Why bollard installation needs its own JHA

Bollards are protective and security posts — fixed steel pipe bollards, removable bollards, decorative bollards, and crash-rated security bollards — installed at building entrances, storefronts, loading docks, parking areas, and security perimeters to stop or deflect vehicles and protect people and property. Installation excavates the footing, sets the bollard (often a steel pipe filled with concrete), and concretes it in (crash-rated bollards have deep, engineered foundations). The hazards combine the footing excavation (striking buried utilities, common at building perimeters and entrances where utilities converge), the heavy handling (steel bollards and concrete are heavy), and the traffic and pedestrian exposure (bollards are at entrances, driveways, and roadways with vehicle and pedestrian traffic). The utility strikes and the traffic exposure justify a dedicated JHA.

Breaking bollard installation into steps

The steps for a Bollard Installation JHA follow the bollard:

  • Locate utilities at the bollard locations
  • Set up traffic/pedestrian control for the location
  • Excavate the bollard footing
  • Set the bollard and align it
  • Concrete the footing and fill the bollard
  • Manage utility, handling, and traffic hazards
  • Finish and cap the bollard
  • Verify the installation

Each step carries a hazard, and the footing excavation (utility strikes) and the heavy handling, plus the traffic exposure, are where the most significant risks concentrate.

The hazards step by step

Utility strikes from footing excavation

Excavating the bollard footings can strike buried utilities, and bollards are installed at building entrances, storefronts, and perimeters where utilities (electrical, gas, water, communications) commonly converge — making the strike hazard significant. The controls are locating utilities at the bollard locations before excavating, hand-digging or vacuum-excavating near located lines, and the utility-locating controls. Crash-rated bollards have deep footings that increase the strike risk. (These follow the utility-locating fundamentals.)

Heavy bollard and concrete handling

Steel bollards (especially crash-rated and large bollards) and the concrete are heavy, handled and set, with crushing, struck-by, and ergonomic hazards. The controls are mechanical handling and rigging for heavy bollards, team lifts, keeping hands and bodies clear as the bollard is set, the caustic-concrete controls, and supporting the bollard during setting. The heavy bollards need mechanical handling.

Traffic and pedestrian exposure

Bollards are at entrances, driveways, storefronts, and roadways with vehicle and pedestrian traffic, exposing the crew to struck-by hazards. The controls are traffic and pedestrian control for the work location, separation from traffic, high-visibility apparel, and managing the pedestrian and vehicle environment at entrances and storefronts. (These follow the traffic-control fundamentals.)

Excavation and concrete

The footing excavation (cave-in for deep footings) and the concrete (caustic) carry their hazards. The controls are the excavation protective systems where the footing depth requires, and the caustic-concrete controls.

A simple Bollard Installation JHA structure

StepHazardControlStandard
Locate utilitiesUtility strikeLocate at bollard locations, hand/vacuum-dig near linesOSHA 1926.651(b)
Set up traffic/ped controlStruck-byTraffic/pedestrian control, separation, hi-visOSHA 1926.201
Excavate footingCave-in / utilityProtective systems if deep, careful excavationOSHA 1926.652
Set bollardCrush / strainMechanical handling, team lifts, hands clearOSHA 1926.251
Concrete footingCausticCaustic-concrete PPE, manage concreteOSHA 1926.95
FinishHandlingGood handling, verify installationOSHA 1926.95

Utility locating and the traffic/pedestrian environment

A Bollard Installation JHA centers on utility locating and the traffic/pedestrian environment, the two hazards tied to where bollards go. The utility locating addresses the strike hazard — bollard footings are excavated at building entrances and perimeters where utilities converge — so utilities are located at the bollard locations and hand/vacuum-dug near lines. The traffic/pedestrian environment addresses the struck-by hazard — bollards are at entrances, driveways, and storefronts with vehicle and pedestrian traffic — so traffic and pedestrian control, separation, and high-visibility apparel protect the crew. A JHA built on utility locating and managing the traffic/pedestrian environment, with heavy-handling controls, addresses the hazards that define bollard installation.

From the field: what actually goes wrong

In fourteen years across federal, heavy civil, and industrial projects, bollard installation has a utility- strike hazard and a traffic/pedestrian hazard driven by where bollards are placed. Bollards go at building entrances, storefronts, loading docks, and perimeters — exactly where utilities converge underground — so excavating the footings risks striking electrical, gas, water, or communication lines. The control is locating utilities at the bollard locations before excavating and hand-digging or vacuum-excavating near located lines. Crash-rated security bollards have deep, engineered footings that dig deeper and increase the strike risk, so the locating matters even more for those.

The traffic and pedestrian environment is the other defining hazard. Bollards are installed at entrances, driveways, and storefronts with active vehicle and pedestrian traffic, so the crew is exposed to struck-by hazards from vehicles and works around pedestrians. On the projects I have run, the controls are traffic and pedestrian control for the location, separation from traffic, high-visibility apparel, and managing the pedestrian environment at storefronts and entrances. The heavy steel bollards (especially crash-rated ones) and the concrete need mechanical handling and team lifts, with the caustic-concrete controls. The JHA that locates the utilities and manages the traffic/pedestrian environment is the one that protects the bollard crew.

The installation method shifts the hazard mix in ways worth planning for. Removable and retractable bollards require a sleeve or below-grade mechanism set into the slab, which often means core-drilling existing concrete — a silica hazard controlled with wet or vacuum drilling — rather than just augering soil. Retrofit bollards at existing storefronts and docks frequently go into existing slabs and paving, so the work is core-drilling and breaking concrete (silica, struck-by) in an occupied, public-facing area rather than open-ground excavation. On the projects I have run, identifying whether the bollard is a new-footing dig or a retrofit core-drill drives whether the controlling hazard is the utility-strike excavation or the concrete silica — and naming it keeps the crew from showing up planned for one and surprised by the other.

The bottom line

A Bollard Installation JHA names the excavation, the lifting, and the traffic hazards with specific controls — locating utilities at the bollard locations and hand/vacuum-digging near lines, traffic and pedestrian control for the entrance and roadway locations, and mechanical handling for the heavy bollards and concrete. The utility strikes and the traffic/pedestrian exposure are the defining hazards. The JHA that manages both is the one that protects the crew.

Frequently asked questions

Why are utility strikes a hazard in bollard installation?

Excavating the bollard footings can strike buried utilities, and bollards are installed at building entrances, storefronts, and perimeters where utilities (electrical, gas, water, communications) commonly converge — making the strike hazard significant, especially for crash-rated bollards with deep footings. Controls are locating utilities at the bollard locations before excavating and hand-digging or vacuum-excavating near located lines.

What is the traffic and pedestrian hazard?

Bollards are at entrances, driveways, storefronts, and roadways with vehicle and pedestrian traffic, exposing the crew to struck-by hazards. Controls are traffic and pedestrian control for the work location, separation from traffic, high-visibility apparel, and managing the pedestrian and vehicle environment at entrances and storefronts.

How are heavy bollards handled?

Steel bollards (especially crash-rated and large bollards) and the concrete are heavy, handled and set, with crushing, struck-by, and ergonomic hazards. Controls are mechanical handling and rigging for heavy bollards, team lifts, keeping hands and bodies clear as the bollard is set, the caustic-concrete controls, and supporting the bollard during setting.

Do crash-rated bollards have different hazards?

Crash-rated security bollards have deep, engineered foundations that dig deeper than standard bollards, increasing the utility-strike risk and potentially requiring excavation protective systems for the deeper footing. The locating and excavation controls matter more for crash-rated bollards, along with the heavier handling.


Written by Mustafa Tok, CSP, ASP, CHST — OSHA Authorized Outreach Trainer with 14+ years of international construction safety experience across federal, heavy civil, and industrial projects.