Download BrochureEurope’s Heatwave Is Raising Industrial Heat and Fire Risks
Updated: July 2026
Europe’s continuing heatwaves are creating challenges that extend well
beyond outdoor comfort. Industrial sites must consider how high ambient
temperatures, dry conditions, hot equipment and ongoing maintenance work
can affect workers, machinery, insulation systems and fire-prevention
procedures.
In June 2026, western Europe experienced its hottest June on record.
Copernicus also reported that the average temperature over European land
was the second-highest recorded for June. Heat continued into July in
parts of the region, while dry conditions contributed to drought and
wildfire activity.
These conditions do not mean that every industrial site will experience
a fire. They do mean that factories, shipyards, construction projects,
power facilities and maintenance contractors should review their
industrial heat and fire risks before carrying out hot
work or operating equipment under unusually hot conditions.
insulation covers are application-specific protective materials. They do
not replace heat-stress management, ventilation, hot-work permits, fire
watches, combustible-material control or emergency planning.
Europe’s 2026 Heatwave in Context
According to the Copernicus Climate Change Service, June 2026 was the
warmest June recorded for western Europe. The western European regional
average reached 20.74°C, approximately 3.06°C above the 1991–2020 June
average.
European land temperatures were also the second-highest recorded for June.
Much of western and central Europe experienced intense heat during the
second half of the month, following an earlier heatwave in May and before
another period of extreme heat developed in July.
Widespread dryness accompanied the high temperatures in many areas. These
conditions increased drought pressure and contributed to wildfire
activity, particularly in parts of the Iberian Peninsula and southern
France.
Western Europe’s June Average
The western European regional average temperature reported for June
2026.
Above the 1991–2020 Average
The reported western European June temperature anomaly.
Western Europe June Ranking
June 2026 was the hottest June recorded for western Europe.
European Land June Ranking
Europe as a whole recorded its second-highest June land temperature.
needs to be evaluated at the individual site, process and work-area level.
Why Extreme Heat Matters at Industrial Sites
Industrial facilities already contain heat sources such as boilers,
furnaces, engines, exhaust systems, steam lines, welding operations and
heated process equipment. A heatwave adds a higher ambient temperature to
these existing conditions.
Higher ambient temperature does not automatically increase the rated
temperature of a material. It can, however, reduce the thermal margin
available to workers and equipment and make poorly ventilated work areas
more difficult to manage.
Worker Heat Stress
Physical work, protective clothing, direct sunlight and nearby hot
processes can increase the body’s heat load. Fatigue and dehydration
may also affect concentration and decision-making.
Hot-Work Conditions
Welding, cutting and grinding continue to generate sparks, hot
particles and radiant heat. Dry surrounding conditions may require
more careful combustible-material control and fire monitoring.
Equipment Surface Temperatures
Boilers, exhaust systems, valves, flanges and process lines may remain
hot for longer or release more heat into already warm work areas.
Cooling and Ventilation Load
Ventilation and cooling systems may operate under greater demand,
particularly inside workshops, temporary enclosures and machinery
rooms.
Outdoor Maintenance
Shipyards, construction projects, rail maintenance and field repairs
may combine solar heat, hot metal surfaces, PPE and hot-work exposure.
Insulation System Condition
Damaged, wet, displaced or poorly fitted insulation can expose hot
surfaces and increase heat transfer into the surrounding work area.
Industrial Areas Requiring Additional Attention
Heatwave planning should focus on locations where ambient temperature and
process heat can combine. The following areas commonly require additional
review.
Welding and Cutting Areas
Sparks, molten spatter, slag and radiant heat can affect nearby floors,
walls, machinery, cables and stored materials.
Boilers and Steam Systems
Valves, flanges, steam lines and fittings may create concentrated hot
surfaces, particularly when insulation is missing or removed for
maintenance.
Engine and Exhaust Areas
Marine engine rooms, generators, vehicle maintenance areas and diesel
equipment can contain exhaust pipes and components with high local
surface temperatures.
Temporary Maintenance Zones
Shutdown work may introduce temporary welding, cutting, scaffolding,
cables, covers and combustible materials into an operating facility.
HVAC and Flexible Connections
Ventilation systems, duct connectors and flexible joints may need
inspection when cooling demand is high or equipment is operating
continuously.
Outdoor Construction and Shipyards
Direct sunlight, heated steel surfaces, limited shade and hot-work PPE
can increase worker thermal exposure.
Heat-Protection Materials and Their Roles
Material selection should be based on the local heat source, exposure
duration, installation direction, mechanical requirements and available
test data. No single fiberglass material is suitable for every heat or
fire-risk condition.
Fiberglass Welding Blankets
Welding blankets can help shield nearby surfaces and equipment from
sparks, light slag, spatter and localized heat during suitable
hot-work operations.
The required fabric, thickness, coating, finished size and
installation direction should be selected according to the work.
Woven Fiberglass Cloth
Woven fiberglass cloth can be supplied as roll material for thermal
barriers, fabricated covers, composite structures and other
industrial applications.
Weight, thickness, weave, surface treatment and fabrication method
should be confirmed before ordering.
Silicone-Coated Fiberglass Fabric
A silicone coating can improve surface durability, flexibility,
handling and resistance to moisture exposure, depending on the
coating system.
It is often considered for removable insulation covers, flexible
connectors, protective covers and fabricated thermal barriers.
High-Silica Fabric
High-silica fabric may be selected for more demanding localized heat
exposure than standard E-glass fabric, subject to the specific product
construction and test conditions.
Buyers should confirm silica content, fabric weight, weave, coating
and the temperature definition used in the technical data.
Removable Insulation Covers
Removable covers can be fabricated for valves, flanges, pipe fittings
and equipment where insulation must be removed for inspection or
maintenance.
The outer fabric, insulation core, liner, fasteners and sewing
materials should be matched to the operating environment.
Fiberglass Insulation Products
Tapes, sleeves, wraps and fabricated insulation materials may be used
around pipes, exhaust systems, equipment and localized heat sources.
Product construction should be selected according to operating
temperature, installation method, abrasion and environmental
exposure.
Industrial Heat-Protection Material Selection Guide
Ambient weather conditions are only one part of the selection process.
The temperature and behaviour of the actual industrial heat source remain
the primary considerations.
| Application | Possible Material Direction | Selection Questions |
|---|---|---|
| Welding and cutting | Welding blanket, coated fiberglass blanket or high-silica fabric |
Spark level, molten spatter, orientation, distance, blanket size and required test documentation |
| Valve and flange insulation | Removable insulation cover with coated fiberglass outer layer |
Surface temperature, insulation thickness, outdoor exposure, maintenance frequency and fastening system |
| Pipe and exhaust wrapping | Fiberglass tape, insulation wrap, sleeve or fabricated cover |
Pipe diameter, continuous temperature, vibration, abrasion, contamination and installation method |
| Flexible connectors | Coated fiberglass fabric or engineered multilayer fabric |
Movement, pressure, airflow, temperature, moisture and chemical exposure |
| Temporary heat barrier | Fiberglass cloth, coated fabric or high-silica fabric |
Radiant heat, contact risk, installation distance, fixing method and repeated use |
| Equipment protection | Custom fabricated cover, blanket, curtain or insulation jacket |
Equipment shape, access openings, seams, grommets, handling and inspection requirements |
service, short-term exposure, the base fabric alone or the complete
finished product.
Hot-Work Controls During a Heatwave
EU-OSHA advises workplaces to treat excessive heat as an occupational
safety and health risk requiring assessment and an action plan. The issue
is particularly relevant to physical work, outdoor tasks, hot processes,
PPE use and poorly cooled indoor environments.
For industrial hot work, heat-stress controls and fire-prevention controls
should be coordinated rather than managed separately.
For higher-risk maintenance and hot-work environments,
welding habitat systems
may help create a controlled work zone for welding, cutting and repair
activities. The enclosure type, ventilation arrangement, pressure
control and site procedure must be evaluated for the actual project.
Review the Work Schedule
Where practical, move demanding work away from the hottest period of
the day and allow additional recovery time.
Assess Worker Heat Exposure
Consider temperature, humidity, radiant heat, workload, PPE,
acclimatisation and individual vulnerability.
Control Combustible Materials
Remove combustible materials where possible or provide suitable
shielding and separation around the hot-work zone.
Verify Ventilation
Confirm that ventilation remains suitable for fumes and heat and does
not displace curtains, blankets or temporary barriers.
Inspect Protective Materials
Check blankets, curtains and covers for tears, open seams,
contamination, damaged grommets or incorrect positioning.
Maintain Fire Watch
Use trained personnel and suitable fire-response equipment according
to the site risk assessment and hot-work procedure.
Provide Water and Recovery Areas
Ensure workers can access drinking water, shaded or cooled recovery
areas and assistance if heat-related symptoms appear.
Check Adjacent Areas
Inspect the opposite side of walls, decks, platforms and penetrations
where heat or sparks may travel out of direct view.
Inspection and Maintenance During Hot Weather
High-temperature protection systems should be inspected before they are
needed, not only after a problem occurs.
- Check exposed hot surfaces and damaged insulation.
-
Inspect welding blankets for tears, burn-through, contamination and
open seams. - Confirm grommets, hooks, frames and fasteners remain secure.
- Look for wet or compressed insulation inside removable covers.
-
Verify that ventilation openings and cooling-air paths are not
obstructed. -
Remove accumulated dust, waste and combustible packaging from hot-work
areas. -
Confirm that emergency routes and firefighting equipment remain
accessible. -
Record damaged protective materials and replace them before further
use.
Bulk Buyer Specification Checklist
Industrial buyers should provide more than a general request for a
“high-temperature fabric.” Complete application information helps the
manufacturer evaluate a suitable construction.
-
Application: welding, insulation, pipe wrapping,
equipment cover or flexible connector -
Heat source: flame, sparks, radiant heat, hot surface,
steam or exhaust - Exposure: continuous, intermittent or short-term
-
Installation: horizontal, vertical, suspended,
wrapped or sewn -
Material: fiberglass, coated fiberglass, high-silica
or multilayer construction -
Dimensions: thickness, weight, width, roll length or
finished size -
Fabrication: cutting, sewing, hems, grommets, straps
or custom shapes -
Environment: indoor, outdoor, moisture, oil, abrasion
or chemical exposure -
Documentation: required test reports, specifications
or inspection records -
Commercial details: quantity, packaging, destination
and delivery schedule
Important Safety Limitations
Heat-resistant fabrics do not cool an entire workplace and do not remove
heat stress from workers.
A welding blanket does not make every hot-work area safe. It cannot
replace combustible-material removal, ventilation, atmospheric testing,
fire watches, extinguishing equipment, trained personnel or emergency
procedures.
The words “heat-resistant,” “fire-resistant” and “high-temperature”
should not be interpreted as unlimited protection. Material performance
depends on construction, exposure, duration, installation and the test
method used.
Facilities should follow applicable local regulations, project
specifications and their own occupational safety and hot-work management
procedures.
Frequently Asked Questions
Does hot weather change the required welding blanket material?
Ambient temperature is one factor, but the welding process, sparks,
spatter, radiant heat, installation direction and distance from the heat
source remain the main selection criteria.
Which fiberglass material is suitable for radiant heat?
The choice may include woven fiberglass, coated fiberglass, foil-faced
materials or high-silica fabric. Selection depends on heat intensity,
distance, duration, flexibility and installation requirements.
What is the difference between fiberglass and high-silica fabric?
Standard fiberglass and high-silica fabric have different compositions
and thermal capabilities. Buyers should compare silica content, fabric
weight, weave, treatment and verified temperature data for the complete
product.
Are silicone-coated fabrics suitable for insulation covers?
Silicone-coated fiberglass fabric is commonly considered as an outer
layer for removable insulation covers because of its flexibility and
coated surface. The complete cover construction must still be designed
for the actual equipment temperature and environment.
Can fiberglass materials prevent industrial fires?
No material can guarantee that an industrial fire will not occur.
Fiberglass-based products may support heat shielding, spark containment
or insulation when correctly selected and installed as part of a wider
safety system.
What information is required for a bulk quotation?
Provide the application, heat source, exposure temperature, duration,
required material, dimensions, fabrication details, quantity, packaging,
destination and required documentation.
Official Sources
-
World Meteorological Organization — Western Europe Has Hottest June
on Record
-
Copernicus Climate Change Service — June 2026 Temperature and
Hydrological Highlights
-
EU-OSHA — Heat at Work: Rising Risks Demand Workplace Action
-
EU-OSHA OSHwiki — Heat at Work Guidance for Workplaces
Climate conditions, warnings and workplace requirements vary by location.
Review current national weather alerts and applicable occupational safety
requirements before planning work.
Request an Industrial Heat-Protection Material Recommendation
Send us your application, heat source, operating temperature, material
preference, dimensions, fabrication requirements and order quantity.
SUIHUA supplies fiberglass fabrics, welding blankets, insulation materials
and custom fabricated heat-protection products for industrial and bulk
purchasing requirements.
