For nearly two years, discussions across the global timber industry have centred on one problem: demand. Housing starts weakened across North America, construction activity slowed in much of Europe, China's property crisis continued to weigh on consumption, and furniture manufacturers reduced production as consumers postponed discretionary spending. The result was familiar\u2014lower prices, thinner margins and growing competition for every cubic metre sold.<\/p>\n
That narrative is beginning to evolve.<\/p>\n
Demand remains subdued by historical standards, but it is no longer the only force shaping timber markets. Energy has once again become a decisive pricing factor, influencing everything from harvesting costs and sawmill profitability to freight rates and the production of engineered wood products.<\/p>\n
Recent geopolitical tensions in the Middle East briefly pushed Brent crude oil above US$80 per barrel<\/strong> before prices eased again. Although the spike proved temporary, it exposed how vulnerable the global timber industry remains to disruptions in energy markets. For an industry that depends on diesel-powered harvesting equipment, energy-intensive drying processes and international shipping, even relatively short-lived increases in fuel prices can alter production economics within weeks.<\/p>\n Unlike previous commodity cycles, however, producers are facing higher costs without the support of strong demand. The result is a market increasingly defined by cost inflation rather than consumption growth.<\/p>\n Energy reaches the market long before the logs<\/strong><\/p>\n Every cubic metre of timber begins its journey in the forest, and that journey has become considerably more expensive.<\/p>\n Modern harvesting equipment consumes substantial volumes of diesel. A single harvester typically burns 18-25 litres of fuel per operating hour<\/strong>, while forwarders transporting logs from the stump to roadside storage consume another 12-18 litres per hour<\/strong>. Timber trucks hauling logs to sawmills or export terminals frequently average 45-60 litres per 100 kilometres<\/strong>, depending on payload, terrain and road conditions.<\/p>\n Fuel therefore represents one of the largest variable costs in commercial harvesting.<\/p>\n Across Scandinavia, harvesting and forest transport generally account for 40-55% of the delivered sawlog cost<\/strong>, according to industry cost studies. When diesel prices increase by \u20ac0.20 per litre<\/strong>, the delivered cost of a sawlog can rise by \u20ac1.50-3.00 per cubic metre<\/strong>, with remote harvesting areas experiencing even larger increases.<\/p>\n The impact becomes particularly evident in northern Sweden, Finland and Canada, where timber often travels more than 200 kilometres<\/strong> before reaching processing facilities. Every additional kilometre adds cost before the first board has even been sawn.<\/p>\n Sawmills consume far more energy than many realise<\/strong><\/p>\n Many outside the industry assume timber production requires relatively little energy because mills generate heat by burning bark and wood residues.<\/p>\n The reality is more complex.<\/p>\n Processing logs into structural lumber requires a continuous supply of electricity to power debarkers, scanners, optimisation systems, saw lines, edgers, conveyors, sorting equipment and automated packaging systems. Dry kilns, meanwhile, remain among the most energy-intensive operations in any sawmill.<\/p>\n Drying one cubic metre of softwood from approximately 55% moisture content to the standard construction level of 18%<\/strong> generally requires between 450 and 700 kWh of thermal energy<\/strong>, depending on species, kiln design and climatic conditions. Electricity consumption typically ranges from 70 to 120 kWh per cubic metre<\/strong>, even before secondary processing begins.<\/p>\n For a modern European sawmill producing 300,000 m\u00b3 of lumber annually<\/strong>, total electricity consumption can easily exceed 25 GWh each year<\/strong>.<\/p>\n Although many Nordic mills produce renewable heat from biomass, they remain heavily exposed to electricity markets. German, French and Italian sawmills, where electricity prices remain structurally higher than pre-2021 averages, continue to face operating costs well above historical norms.<\/p>\n For many producers, electricity has become almost as important as timber itself.<\/p>\n Engineered wood products carry an even heavier energy burden<\/strong><\/p>\n The influence of energy becomes even more pronounced once production shifts from sawn timber to engineered wood products.<\/p>\n Manufacturers of OSB, MDF, particleboard, plywood and LVL<\/strong> depend not only on wood fibre but also on petrochemical products derived from oil and natural gas. Urea-formaldehyde, phenol-formaldehyde, melamine resins and paraffin waxes are essential components of modern panel production, making energy prices an indirect raw material cost.<\/p>\n Depending on the product, adhesives and chemical additives typically account for:<\/p>\n A large MDF facility producing 500,000 m\u00b3 annually<\/strong> may consume more than 150 GWh of thermal energy<\/strong> and an additional 40-60 GWh of electricity<\/strong> every year.<\/p>\n Consequently, rising oil or natural gas prices affect panel manufacturers twice\u2014through higher energy bills and through more expensive chemical inputs.<\/p>\n This explains why engineered wood products often experience cost inflation before traditional softwood lumber markets.<\/p>\n Freight has become one of the industry's largest cost variables<\/strong><\/p>\n Energy also influences timber markets through transport.<\/p>\n Whether shipping radiata pine from New Zealand to China, spruce from Sweden to Egypt or southern yellow pine from the United States to Europe, freight has become a strategic pricing factor rather than a simple logistical expense.<\/p>\n Ocean freight for New Zealand export logs has fluctuated between US$35 and US$50 per JAS m\u00b3<\/strong> over the past year. A movement of only US$5<\/strong> changes exporter returns by several percentage points, often determining whether harvesting remains profitable.<\/p>\n European exporters face similar challenges.<\/p>\n Shipping softwood lumber from northern Europe to North Africa or the eastern Mediterranean typically costs between \u20ac35 and \u20ac70 per cubic metre<\/strong>, depending on destination and vessel availability. Containerised shipments generally face even greater volatility.<\/p>\n Road transport remains equally significant.<\/p>\n Across Central Europe, every additional 100 kilometres<\/strong> between forest and sawmill generally adds \u20ac2-4 per cubic metre<\/strong> to delivered log costs. Mills located close to harvesting areas therefore enjoy an increasingly valuable competitive advantage.<\/p>\n Rising energy costs reshape the resin market<\/strong><\/p>\n Few industries illustrate the relationship between oil prices and timber more clearly than engineered wood manufacturing.<\/p>\n Resins used in MDF, particleboard, plywood and LVL originate almost entirely from the petrochemical industry. Phenol, methanol, formaldehyde and paraffin wax all track broader energy markets.<\/p>\n When crude oil prices rise sharply, chemical producers typically adjust resin quotations within weeks rather than months.<\/p>\n For panel manufacturers operating on already narrow margins, these increases arrive regardless of whether customers are prepared to pay higher board prices.<\/p>\n In many cases, production continues simply because shutting down a continuous panel line is even more expensive.<\/p>\n Weak demand prevents full cost recovery<\/strong><\/p>\n Normally, manufacturers confronted with rising production costs simply increase selling prices.<\/p>\n Today's market offers little room for such adjustments.<\/p>\n Residential construction remains subdued across much of Europe, while housing affordability in North America continues to be constrained by elevated borrowing costs. China's property sector has yet to return to sustained growth despite repeated government stimulus.<\/p>\n As a result, many sawmills and panel producers have been forced to absorb much of the additional cost inflation themselves.<\/p>\n Margins narrow.<\/p>\n Production slows.<\/p>\n Operating rates decline.<\/p>\n Only later does reduced supply begin restoring market balance.<\/p>\n This process is already visible across several European markets, where mills have shortened production schedules or introduced temporary downtime rather than producing inventory at unprofitable margins.<\/p>\n Housing remains the industry's missing catalyst<\/strong><\/p>\n Ultimately, timber demand still depends on construction.<\/p>\n Every detached house requires framing lumber, roof trusses, structural panels, flooring, doors, furniture and interior joinery. Apartment construction supports plywood, laminated beams, OSB and engineered flooring. Renovation activity drives MDF, particleboard and decorative products.<\/p>\n High energy prices affect every one of those segments.<\/p>\n More expensive fuel raises transportation costs.<\/p>\n Higher electricity prices increase manufacturing expenses.<\/p>\n Persistent inflation delays interest-rate reductions.<\/p>\n Higher mortgage rates reduce housing affordability.<\/p>\n Consumers postpone renovation projects.<\/p>\n The consequences extend throughout the entire wood products supply chain.<\/p>\n Energy therefore influences demand indirectly while simultaneously increasing production costs.<\/p>\n Few industries experience both pressures as directly as timber.<\/p>\n The producers best positioned for the next cycle<\/strong><\/p>\n Not every manufacturer is equally exposed.<\/p>\n Scandinavian producers continue to benefit from abundant hydroelectric generation and widespread biomass-based heating systems, reducing dependence on fossil fuels. Several Austrian and German mills have invested heavily in combined heat-and-power plants that convert sawmill residues into electricity and steam, lowering operating costs while improving energy security.<\/p>\n In contrast, manufacturers relying heavily on purchased electricity and natural gas remain considerably more vulnerable to future price shocks.<\/p>\n Investment decisions increasingly reflect this reality.<\/p>\n Over the past three years, many European producers have accelerated projects involving biomass boilers, solar installations, battery storage and heat recovery systems. What began as environmental initiatives have rapidly become measures designed to preserve competitiveness.<\/p>\n Energy efficiency is no longer simply a sustainability objective.<\/p>\n It has become a commercial strategy.<\/p>\n A different market than the one producers expected<\/strong><\/p>\n At the beginning of 2026, many analysts expected another year dominated by weak demand and falling prices.<\/p>\n Instead, the market is proving more complicated.<\/p>\n Demand remains fragile, yet production costs are preventing the sharp price corrections experienced during previous downturns. Manufacturers are increasingly reluctant to sell below replacement cost, while supply adjustments are limiting inventory accumulation.<\/p>\n The industry has entered a phase where energy matters almost as much as housing starts.<\/p>\n That represents a fundamental shift in market dynamics.<\/p>\n For decades, timber pricing was driven primarily by construction activity. Today, producers must simultaneously monitor crude oil, natural gas, electricity markets, freight rates, inflation and interest-rate policy.<\/p>\n The next major move in timber markets may therefore come not from forests or housing developments, but from energy markets.<\/p>\n For producers, traders and buyers alike, understanding that relationship may prove just as important as forecasting the next building cycle.<\/p>","protected":false},"excerpt":{"rendered":" For nearly two years, discussions across the global timber industry have centred on one problem: demand. Housing starts weakened across North America, construction activity slowed in much of Europe, China’s property crisis continued to weigh on consumption, and furniture manufacturers … Continue reading \n\n
\n \nEngineered wood product<\/th>\n Estimated share of resins and additives in variable production costs<\/th>\n<\/tr>\n<\/thead>\n \n OSB<\/strong><\/td>\n 10\u201315%<\/strong><\/td>\n<\/tr>\n \n Particleboard<\/strong><\/td>\n 15\u201320%<\/strong><\/td>\n<\/tr>\n \n MDF<\/strong><\/td>\n 20\u201330%<\/strong><\/td>\n<\/tr>\n \n Specialty plywood<\/strong><\/td>\n Up to 35%<\/strong><\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n