Preventing Falls: Best Practices for Roof Installers at Heights

Working on a roof is never routine. Heights, edges, fragile surfaces, sudden gusts, and moving materials all combine to turn a simple task into a high-risk activity. For roof installers across Europe and the Middle East, fall prevention is the single most important line of defense against life-altering accidents. This guide brings together proven methods and practical tips that roofers and site managers can apply immediately, whether you are fitting clay tiles in Bucharest, sealing a membrane in Timisoara, or installing solar rails in Cluj-Napoca.

At ELEC, we staff and support construction and technical teams who work at height daily. We see the difference that disciplined planning, the right equipment, clear roles, and a culture of safety make on productivity, budgets, and - most importantly - the lives of skilled professionals. The goal of this guide is simple: help every team return home safe, every day, without slowing the job.

Why Height Safety Must Be Non-Negotiable

Falls from height remain a leading cause of severe injuries in construction. The risk profile on roofs is unique because mistakes are rarely forgiving; once a slip happens near an unprotected edge, the consequences escalate fast. The best-performing roofing teams treat fall prevention as non-negotiable.

Key risk factors to recognize before any roof work:

Roof pitch and surface: Steeper pitches and smooth or wet surfaces (metal sheets, glazed tiles, bitumen in heat) reduce traction and increase sliding distance.
Hidden openings: Skylights, fragile asbestos-cement sheets, smoke vents, or thin decking often look safe but will not support a person's weight.
Edge exposure: Unprotected perimeters, parapets under 1 m, and transitions onto ladders and scaffolds.
Weather: Wind gusts, rain, frost, heat, and glare affect traction, balance, and judgment.
Materials and housekeeping: Loose debris, cut-offs, film backings, and tools create slip and trip hazards.
Fatigue and rushing: End-of-day fatigue, schedule pressure, and complacency lead to shortcuts.

Use the hierarchy of controls to drive decisions:

Eliminate: Can you execute the task from the ground or an elevated platform with guardrails? Can you prefabricate assemblies to reduce roof time?
Prevent: If you must go on the roof, install collective protection like guardrails or scaffolds first.
Restrain: Use travel-restraint systems that stop the worker reaching an edge.
Arrest: As a last resort, use fall-arrest systems that stop a fall in progress, backed by a tested rescue plan.

Plan the Job: Pre-Start Risk Assessment and Method Statement

Roofer safety lives and dies in the planning. A 30-minute pre-start process will save hours on site and prevent near misses.

Step-by-step planning process:

Scope and drawings: Obtain roof plans, pitch, materials, parapet heights, and anchor points. Ask the client for as-built updates.
Site survey: Verify access routes, ground conditions for scaffolds or MEWPs, overhead lines, fragile zones, and drop zones.
Select the work method: Decide the safest access (scaffold, stairs tower, MEWP, fixed ladder, roof hatch). Prioritize collective protection.
Anchor and lifeline design: Mark proposed anchors, lifelines, and travel paths; ensure 100% tie-off is possible end-to-end.
Fall-clearance calculation: Calculate required clearance for each potential fall path (details below). If insufficient, change the setup.
Weather plan: Define go/no-go thresholds for wind, rain, ice, and lightning. Pre-approve rescheduling rules.
Material movement: Plan lifts, hoists, and laydown areas. Eliminate manual handling on edges.
Rescue plan: Choose rescue methods, equipment, and roles for prompt recovery after a fall arrest. Practice it.
Briefing and permits: Complete the method statement, risk assessment, and any permit-to-work documentation. Conduct a toolbox talk before starting.

Documents to prepare and keep on site:

Method statement with drawings of anchors, lifelines, and travel paths
Risk assessment highlighting fragile areas and controls
Equipment inspection logs for harnesses, lanyards, SRLs, anchors, and scaffolding
Emergency plan with nearest hospital, 112 (EU/Romania) or local emergency number
Daily pre-use checklists for access, PPE, and weather

Choose the Right Fall-Protection System for the Roof Type

Different roofs call for different strategies. Choose systems that prevent falls first and make tie-off simple and continuous.

Typical setups by roof type:

Flat roofs with parapets below 1 m: Install temporary freestanding guardrails with toe boards. Add travel-restraint lines to keep workers 2 m back from edges during tasks. If skylights exist, cover or guard them.
Flat roofs with adequate parapets (1.1 m+): Confirm parapet is structurally sound and continuous. Add restraint lines for areas near hatches or openings. Guard or cover skylights.
Pitched tile or shingle roofs (20-45 degrees): Use roof ladders or crawling boards, anchor to ridge or structural members, and connect workers with EN 355 energy-absorbing lanyards or EN 360 self-retracting lifelines (SRLs). Keep materials below workers; use debris nets where appropriate.
Metal cladding roofs: Anticipate slip risks in wet or dusty conditions. Use walkways with anti-slip, temporary guardrails, and SRLs with appropriate sliders for lifelines. Confirm panel strength and fixings before stepping.
Fragile roofs (e.g., asbestos-cement, old fiberboard): Treat all areas as non-walkable. Use platforms, staging, and crawling boards that span load-bearing elements. Guard or cover all openings.
Solar PV installation on roofs: Combine edge guardrails with horizontal lifelines along the array. Use tool tethering and panel-handling frames to avoid working at the edge.

Prevention-over-arrest rule of thumb:

If you can stop a worker from reaching an edge with restraint, do it. Travel restraint reduces variables and is simpler to supervise.
Reserve fall-arrest for situations where edges are unavoidable, ensuring enough clearance and a robust rescue plan.

Anchors, Lifelines, and Connectors: How to Configure Them Correctly

Anchors are the foundation of your protection system. Choose certified solutions, install them correctly, and use connectors suited to the task.

Anchor systems and standards:

EN 795 anchors: Type A (structural anchors), B (temporary anchors), C (horizontal lifeline), D (rigid rails), and E (deadweight anchors on flat roofs). Follow the manufacturer's installation procedure and load-testing requirements.
Strength: Consult the anchor's specification. As a rule, anchors are designed to withstand significant forces, but field conditions and substrate capacity are decisive. Never improvise an anchor point on unverified materials (e.g., vent pipes, small parapets, or lightweight fixings).
Placement: Position anchors to enable continuous tie-off and minimize swing falls. On pitched roofs, favor ridge-level anchors to reduce free-fall distance.

Connectors and lifelines:

Energy-absorbing lanyards (EN 355): Limit force transmitted to the body and anchor. Usually 1.8-2.0 m when fully deployed. Consider twin-tail lanyards to maintain 100% tie-off during transitions.
Self-retracting lifelines (EN 360): Reduce free-fall distance and typically lower fall clearance needs. Choose SRLs with suitable cable/web length and fall indicators. For edges, use SRLs rated for sharp leading edges if specified by the manufacturer.
Horizontal lifelines (EN 795 C): Allow travel along the roof. Confirm span, deflection, and end-anchorage design. Avoid lifeline setups that create large fall factors or swing hazards.
Connectors (EN 362): Use double-action locking carabiners; avoid connecting to harness gear loops not rated for fall arrest. Only use the dorsal D-ring or front fall-arrest attachment as specified by your harness.

Golden rules:

100% tie-off: Remain connected at every point of the task. Use twin lanyards when moving between anchors.
Avoid swing falls: Reposition anchors or lifelines to keep fall vectors perpendicular to the edge.
No knots: Never tie knots in lanyards or lifelines to shorten them. Use proper adjustable restraint lanyards instead.
Protect the system: Use edge protectors where lifelines contact abrasive surfaces.

Calculate Fall Clearance (With a Worked Example)

If you use fall arrest, you must prove that nothing is hit during a fall. This means calculating clearance below the feet at the work position.

Typical components of fall clearance using a 2 m lanyard with energy absorber:

Free-fall length: Up to 2 m depending on lanyard position
Deceleration distance: Typically up to 1.75 m (consult the absorber data)
Body length from D-ring to feet: Approximately 1.5 m for an average worker
Harness stretch and system stretch: Approximately 0.3-0.5 m
Safety margin: At least 1 m

Example calculation:

Free fall: 2.0 m
Deceleration: 1.75 m
D-ring to feet: 1.5 m
System stretch: 0.5 m
Safety margin: 1.0 m
Total clearance required below feet: 6.75 m

If your roof edge-to-ground distance is, for example, 6 m, this setup would be unacceptable. Switch to an SRL to reduce free fall or reposition anchors to reduce fall distance.

SRL example:

Free fall: 0.6 m (varies by unit and scenario)
Deceleration: 1.0 m
D-ring to feet: 1.5 m
System stretch: 0.3 m
Safety margin: 1.0 m
Total: 4.4 m clearance needed

Always calculate based on the exact product data provided by the manufacturer, and reassess when the work position changes.

Harnesses, Helmets, and Footwear: PPE That Actually Prevents Falls

Correctly selected and fitted PPE can be the difference between a scare and a catastrophe.

Harness selection and fit:

Standard: Full-body fall-arrest harness conforming to EN 361.
Fit check (A-B-C-D-E):
- A - Anchor point: Dorsal D-ring sits between shoulder blades.
- B - Buckles: Double-back or quick-connect buckles locked and tightened.
- C - Chest strap: At mid-chest, not up at the throat or down on ribs.
- D - Dorsal and dorsal webbing: Flat against body, not twisted.
- E - End straps/leg loops: Snug fit; you should fit a flat hand under the leg strap, not a fist.
Accessories: Consider integrated trauma-relief straps for post-fall suspension.

Head protection:

Choose a helmet certified to EN 397 (industrial helmet) or EN 12492 (mountaineering-style) with a 4-point chinstrap. The chinstrap prevents lose-your-helmet events during slips and gusts.
Add clip-on visors or safety glasses rated to EN 166 for eye protection when cutting or grinding.

Footwear and gloves:

Footwear: EN ISO 20345 S3 SRC boots provide toe protection, puncture-resistant midsole, and slip-resistant soles. Favor boots with defined heels for ladder rungs.
Gloves: Use EN 388-rated gloves matched to the task (cut resistance for sheet metal, grip for tile handling). Swap to dry gloves if they become soaked.

Clothing and extras:

Wear close-fitting clothing with no loose ends. High-visibility vests help in busy sites.
Tether small tools to the worker and heavier tools to approved anchor points. Never tether heavy items to a person.

Inspection and care:

Pre-use checks: Look for cuts, UV damage, loose stitching, corrosion, and deployed indicators. Remove any suspect PPE from service immediately.
Periodic inspections: Follow the manufacturer's and company schedule, typically at least every 6-12 months by a competent person; record in a log.
Storage and lifespan: Keep PPE dry, cool, and out of direct sunlight. Respect service-life limits provided by the manufacturer.

Ladders and Access: Get Up and Down Safely

Falls often happen during access and egress. Make these moments controlled and predictable.

Ladder best practices:

Angle: 4:1 rule (1 m out for every 4 m up).
Extension: Extend at least 1 m above the landing point and secure at top and bottom.
Condition: Inspect for bent stiles, missing feet, or worn rungs. Clean off mud and sealant.
Hands-free transitions: Use a twin-tail lanyard or SRL so you are always connected when stepping on/off.
Work-from-ladder: Avoid working from ladders when both hands are needed or when lateral force is high; use a platform or scaffold instead.

Scaffolds and stairs towers:

Erect by competent personnel, inspect at handover and at least weekly or after weather events.
Include guardrails (top and mid), toe boards, and safe access.
Keep platforms clear of debris and ice; use salt or grit in winter.

Roof hatches and internal access:

Guard hatch openings with temporary rails or covers that are secure and labeled.
Keep ladders tied off inside the hatch and maintain three points of contact.

Housekeeping, Edge Protection, and Material Handling

A clean, well-organized roof is a safe roof.

Edge and opening protection:

Install temporary guardrails and toe boards at edges.
Cover skylights and fragile areas with rated covers secured against displacement. Mark covers with "Do not step".
Use debris nets or catch platforms where justified by risk.

Material handling:

Hoists and cranes: Plan lifts, use tag lines, and keep workers out of suspended load zones.
Laydown: Keep materials 2 m away from edges where possible; restrain stacks against wind.
Cut-offs and film: Use bins for offcuts and remove plastic film immediately to avoid slips.

Housekeeping routines:

Appoint a helper to collect waste regularly.
End-of-day sweep to remove tripping hazards, secure materials, and close openings.

Weather, Lighting, and Seasonal Risks

Weather can flip a safe roof into a no-go zone in minutes.

Set clear thresholds:

Wind: Stop work on exposed roofs when sustained wind exceeds the limit set by your method statement or equipment manuals. As a conservative example, many teams pause membrane or panel handling above 12 m/s (approx. 43 km/h). Use on-site anemometers.
Rain and ice: Postpone work when surfaces are wet or icy unless you have specific engineered controls. Blowers and squeegees can help, but not on steep pitches.
Heat: Hydrate and rotate teams. Use anti-slip gloves when sweat reduces grip. Schedule heaviest lifting for early hours.
Cold: Use thermal gloves with good dexterity. Remove ice from ladders and walkways. Watch for brittle materials.
Lighting: Provide task lighting for predawn or dusk work. Ensure uniform, shadow-free illumination to avoid missteps.

Skylights, Fragile Surfaces, and Hidden Openings

Many skylight falls involve experienced roofers stepping onto what looked solid. Treat every penetration as a fall hazard until protected.

Controls:

Identify: Mark skylights, domes, and thin sheets on the plan and with flags or paint on site.
Cover: Use covers that can support at least the maximum intended load, secured to prevent displacement, and labeled.
Guard: Where covers are impractical, install guardrails or temporary barriers around openings.
Platforms: On fragile roofs, use crawling boards or platforms that distribute weight over structural members.

Electrical and Other Site Hazards

Electrocution and arc flash are secondary but serious risks.

Overhead lines: Maintain a minimum exclusion zone; as a general guide, keep at least 3-5 m clearance and consult the utility for exact distances.
Cables and services: Mark all penetrations and routes for pipes and conduits. Avoid drilling or fastening without verification of what is below.
Hot works: Use permits. Maintain fire watches and keep extinguishers rated for the materials at hand.

Tools, Equipment, and Small-Object Control

Dropped objects injure people below and damage property.

Tool tethering: Tether hand tools under 2 kg to the worker and heavier tools to fixed anchors. Use lanyards rated for the tool weight.
Exclusion zones: Mark ground-level drop zones with barriers. Control access during lifts and edge work.
Organization: Use tool belts with closed pouches and magnetic trays on flat roofs.

Communication, Supervision, and Team Roles

Clear communication reduces surprises.

Pre-job brief: Review scope, hazards, weather, tie-off strategy, and rescue plan. Assign roles.
Buddy system: Pair installers so no one works alone. Buddies check harness fit and tie-off.
Signals: Use hand signals for crane work, radios with headsets in windy or noisy conditions.
Supervision: A competent person should be present to adjust the plan as conditions change.

Training, Certification, and Competence

A strong safety system depends on trained people.

Work at height training: Ensure all roof installers complete recognized work-at-height training that covers hazard identification, equipment use, and rescue basics.
Equipment-specific training: SRLs, horizontal lifelines, and rescue devices require product training.
First aid: At least one trained first aider per team, with specific content on suspension intolerance.
Refreshers: Schedule annual refreshers and practice rescues quarterly if fall arrest is used.
Records: Maintain a competency matrix that links workers to their training and authorizations.

Rescue Planning: Because Arrest Is Only Half the Story

If a fall is arrested, you have minutes, not hours, to act.

Timeframe: Aim to start rescue within 5 minutes and complete within 10-15 minutes. Prolonged suspension can lead to suspension intolerance.
Methods: Pre-rigged rescue kits, pole rescues, or controlled descenders, depending on roof layout.
Access: Ensure a clear path to the casualty that does not expose rescuers to more risk.
Practice: Run drills on each site until teams can execute smoothly.
Post-incident: Quarantine all involved equipment, document the event, and conduct a learning review.

Documentation, Inspections, and Maintenance Cycles

Paperwork is not bureaucracy; it is your memory and your proof.

Daily: Pre-use inspections of harnesses, lanyards, SRLs, anchors, ladders, and access systems. Log findings.
Weekly: Formal inspection of scaffolds and edge protection.
After events: Reinspect after storms, impacts, or near misses.
Periodic: Competent-person inspections per manufacturer guidance (often 6-12 months). Keep certificates accessible on site.

Digital Tools and Innovations That Make Roof Work Safer

Drones: Survey conditions and verify anchor placements without stepping on fragile surfaces.
Mobile checklists: Standardize pre-start and end-of-day checks.
Weather apps and sensors: Use site-level anemometers for real-time wind data.
Photo documentation: Capture setups and hazards to brief incoming shifts.

Culture, Reporting, and Incentives That Stick

Sustained safety is cultural.

Stop-work authority: Empower everyone to pause work for safety concerns.
Near-miss reporting: Make it easy and blame-free. Track and act on trends.
Positive reinforcement: Recognize teams that keep sites orderly and compliant.
Leadership presence: Supervisors must wear PPE, follow rules, and set the tone.

Regional Insight: Romania Job Market, Pay, and Typical Employers

Romania's roofing sector is busy with residential refurbishments, industrial cladding, waterproofing, and growing solar PV retrofits. Safety expectations are rising alongside client and EU requirements.

Typical employers hiring roof installers in Romania:

Specialized roofing and waterproofing contractors (bituminous membranes, PVC/TPO, EPDM, tiles, metal cladding)
General contractors that self-perform roofing on design-build projects
Industrial maintenance firms working on factories and logistics centers
Solar EPCs and PV installers mounting rooftop arrays on commercial and residential buildings
Insurance restoration contractors handling storm or hail damage
Facility management companies maintaining large retail or office roofs
Public-sector or municipal projects involving schools, hospitals, and social housing

Illustrative pay ranges (2024-2025, vary by experience, region, season, and overtime):

Entry-level helper: 150-220 RON/day (approx. 30-45 EUR/day). Monthly equivalent for 22 working days: 3,300-4,840 RON (approx. 660-970 EUR).
Skilled roofer/installer: 220-350 RON/day (45-70 EUR/day). Monthly: 4,840-7,700 RON (approx. 970-1,540 EUR).
Foreman/lead roofer: 350-500 RON/day (70-100 EUR/day). Monthly: 7,700-11,000 RON (approx. 1,540-2,200 EUR) during peak periods with overtime.

City-level variations:

Bucharest: Often 10-20% higher than national averages due to project scale and demand. Skilled installers may see 6,000-8,500 RON/month (1,200-1,700 EUR), with foremen exceeding 9,000 RON (1,800 EUR) in busy months.
Cluj-Napoca: Close to Bucharest levels for complex commercial projects; skilled roofers around 5,500-8,000 RON/month (1,100-1,600 EUR).
Timisoara: Typically 5-10% below Bucharest; skilled roofers around 5,000-7,500 RON/month (1,000-1,500 EUR).
Iasi: Often 10-15% below Bucharest; skilled roofers around 4,500-7,000 RON/month (900-1,400 EUR).

Notes:

Many contractors pay a base plus daily allowances, travel per diems, and overtime. Seasonal peaks can lift monthly totals substantially.
Certifications (e.g., work-at-height, hot works, first aid) and proven safety records often improve offers.
For international assignments (e.g., Middle East projects with accommodation and flights covered), daily rates can be higher, but employers will expect strict adherence to fall-protection procedures and documented competence.

ELEC works with clients across Romania and beyond to source roof installers and foremen who are trained, certified, and safety-first. Our screening verifies work-at-height experience, PPE knowledge, and willingness to follow method statements.

Compliance Snapshot: Standards and Requirements to Know

EU and Romania context: Follow EU directives and national labor laws. Local labor inspectorates may audit work-at-height controls, training, and documentation.
EN standards often referenced on roofing sites:
- EN 361: Full-body harnesses
- EN 355: Energy absorbers
- EN 360: Self-retracting lifelines
- EN 362: Connectors
- EN 795: Anchor devices (A, B, C, D, E)
- EN 397 / EN 12492: Helmets
- EN ISO 20345: Safety footwear
- EN 388: Protective gloves
Company policies: Many clients mandate 100% tie-off and specific rescue kit availability. Read and comply with site-specific rules.

Always consult product manuals and local regulations; if policies differ, adopt the most conservative rule that keeps workers safe.

A 10-Minute Pre-Start Checklist for Roof Installers

Use this quick, repeatable checklist at the start of each shift:

Weather: Wind within limits? No rain/ice on surfaces? Adequate daylight or task lighting?
Access: Ladders or stairs secure and inspected? Hatch guarded? Scaffold tags in date?
Anchors and lifelines: Installed per plan? Labels and inspections valid? Edge protectors in place?
PPE: Harness fit checked (A-B-C-D-E)? Lanyards/SRLs inspected? Helmets with chinstraps? Gloves and boots appropriate?
Rescue: Kit present and pre-rigged if needed? Roles confirmed? Radio/phone coverage tested?
Materials: Hoist plan confirmed? Laydown 2 m from edges? Debris bins ready?
Briefing: Task steps agreed? Hazards reviewed? 100% tie-off reiterated?

Close-of-day wrap-up:

Remove loose materials, secure stacks, cover openings.
Quarantine any damaged gear and record in log.
Note weather changes or near misses for tomorrow's brief.

Common Mistakes That Lead to Falls (And How to Stop Them)

Miscalculated clearance: Always recalc when anchor position or roof level changes.
Single lanyard on transitions: Use twin-tail for 100% tie-off.
Unsecured ladders: Top- and bottom-tie and extend 1 m above landing.
Ignoring skylights: Cover or guard every opening. Treat all translucent panels as fragile.
Rushing in wind: Pause panel handling and large membrane runs when gusts exceed limits.
Improvised anchors: Do not clip to pipes, parapet caps, or HVAC units.
Poor housekeeping: Plastic films, offcuts, and cords cause slips. Clean as you go.

What Good Looks Like: A Safe Setup on a Pitched Tile Roof

Access via a secured ladder tied at top and bottom, extending 1 m above the gutter line, with a scaffold platform at the eave.
Ridge anchor fixed into structural members, verified by the competent person.
Roof ladder hooked over the ridge, providing stable footing.
Installers in EN 361 harnesses using twin-tail EN 355 lanyards to maintain 100% tie-off when moving along the ridge.
Tool tethers on nailers and hand tools, with a ground-level exclusion zone marked.
Materials staged below the work area, 2 m from the edge, restrained against wind.
Skylights on the adjacent section covered with secured, rated covers labeled "Do not step".
A rescue kit pre-rigged at the ridge anchor, with the team briefed on roles.

Frequently Asked Questions

1) Do I always need a fall-arrest system on a flat roof with a high parapet?

If the parapet is continuous and at least 1.1 m high, it may serve as adequate collective protection for many tasks. However, you still need to guard or cover openings like skylights and hatches. For tasks within 2 m of the edge or where leaning over is required, add travel restraint to prevent reaching the edge. Always verify the parapet's structural integrity.

2) What is the difference between travel restraint and fall arrest?

Travel restraint prevents the worker from physically reaching a fall hazard using an adjusted lanyard or lifeline. Fall arrest allows access to the edge but stops a fall in progress. Restraint is simpler, reduces clearance problems, and is preferred whenever reasonably practicable. Arrest requires careful clearance calculations and a tested rescue plan.

3) How often should I inspect my harness and lanyard?

Perform a pre-use inspection at the start of every shift and after any event that could cause damage. In addition, a competent person should perform a formal inspection at intervals specified by the manufacturer, commonly every 6-12 months. Keep a written log of inspections and remove any questionable gear from service immediately.

4) Are self-retracting lifelines (SRLs) always better than energy-absorbing lanyards?

Not always. SRLs can reduce fall distances, which helps with clearance. But they require correct positioning, may need leading-edge ratings for sharp edges, and can be more sensitive to alignment. Energy-absorbing lanyards are simpler and robust when free-fall distances are controlled. Choose based on the task, anchor location, edge conditions, and manufacturer guidance.

5) What wind speed should stop roof work?

Follow your method statement and equipment manuals. As a conservative guide, many teams stop handling large sheets or panels when sustained winds reach around 12 m/s (approximately 43 km/h). Gusty conditions can be riskier than steady winds. Use site anemometers and remember that wind accelerates over roof edges and higher elevations.

6) How do we plan for a rescue after a fall arrest?

Define specific methods (pre-rigged rescue kit, controlled descent, or pole rescue), assign roles, and practice on the actual setup. Aim to begin rescue within 5 minutes and complete within 10-15 minutes. Ensure anchors for rescue are rated and accessible, and verify communication and emergency services contact details are ready (e.g., 112 in Romania and across the EU).

Work Smarter and Safer With ELEC

Keeping roof installers safe at height is about consistency: planning the work, preventing the fall, and preparing for the rescue. Teams that do these three things well finish jobs faster, reduce rework, and protect their reputation - and most importantly, protect their people.

If you need trained roof installers, foremen, or HSE professionals who know how to execute at height the right way, ELEC can help. We recruit across Romania - from Bucharest and Cluj-Napoca to Timisoara and Iasi - and across Europe and the Middle East. Our talent is screened for work-at-height competence, hands-on experience with EN-compliant PPE, and a proactive safety mindset. We can also assist with onboarding checklists, safety brief templates, and connections to accredited training providers.

Contact ELEC to build safer roofing teams and deliver your next roof project on time, on budget, and without incidents.