Fast Fashion Water Consumption Statistics

A T-shirt production is estimated to require about 2,720 liters of water [1]

A pair of jeans is estimated to require about 7,600 liters of water [2]

A sweater is estimated to require about 2,500 liters of water [3]

A hoodie is estimated to require about 2,000 liters of water [4]

A dress is estimated to require about 1,500 liters of water [5]

A shirt is estimated to require about 2,700 liters of water [6]

A bath towel is estimated to require about 2,700 liters of water [7]

A bed sheet is estimated to require about 1,200 liters of water [8]

A cotton T-shirt requires about 2,700 liters of water [9]

A single pair of jeans requires 7,500–10,000 liters of water [10]

Textile dyeing and finishing can consume 10–100 m3 of water per ton of textiles [11]

In textile dyeing, typical water consumption is about 60–200 liters per kg of fabric [12]

Dyeing and finishing stages are responsible for substantial freshwater withdrawals; cotton processing is water-intensive [13]

Water withdrawal for dyeing and finishing is a major share of textile production water footprint [13]

The wet processing of textiles is estimated to use about 1.5–10 m3 of water per kg of fabric [14]

A study reported that producing 1 kg of cotton fabric requires around 10,000 liters of water including irrigation [15]

A study found water consumption of wet processing for dyeing can be in the range of 50–250 liters per kg of fabric [16]

In dyeing processes, water use can vary widely from 10–30 L/kg for certain low-liquor techniques but higher for conventional [17]

In a case study, dyeing 1 kg of fabric required about 60 L of water for low-liquor processes [16]

Conventional dyeing can require far higher liquor ratios, leading to higher water consumption per kg [16]

A life-cycle assessment indicates that washing during use can add to total water footprint depending on garment lifetime [18]

Another LCA indicates dyeing/finishing contributes a smaller but significant share compared with fiber cultivation [18]

A UNEP story cites the textile industry as using vast amounts of water and mentions jeans and T-shirts as examples [10]

The EPA notes that textile wet processing and washing/maintenance consume water across the lifecycle [19]

The water footprint of cotton cultivation is about 7,600 liters per kg of cotton on average [20]

The water footprint of conventional cotton is higher than organic cotton; conventional is listed at about 10,000 liters per kg while organic is lower at about 5,000 liters per kg [20]

The water footprint of polyester is reported as about 100 liters per kg [20]

The water footprint of nylon is reported as about 15 liters per kg for feedstock/production [20]

The water footprint of viscose is reported around 2,000 liters per kg [20]

The water footprint of wool is reported around 20,000 liters per kg (depending strongly on region) [20]

Cotton cultivation accounts for most of the water footprint in cotton-based clothing products [20]

Global cotton accounts for 2.4% of world agricultural land but uses about 7% of insecticides and 16% of pesticides, linking to water stress [21]

Cotton can require large volumes of irrigation water; in water-scarce regions irrigation can dominate blue water [20]

For cotton t-shirts, a large share of water footprint comes from cultivation, not manufacturing [20]

For jeans, irrigation for cotton is a major component of the water footprint [20]

For viscose, the water footprint includes processing water and upstream feedstock water [20]

For polyester, the water footprint is much lower than cotton-based items because it relies more on fossil feedstocks [20]

The water footprint of cotton is strongly location-dependent; some averages range between 5,000–20,000 liters per kg [20]

According to Water Footprint Network product examples, blue water for cotton can dominate in irrigated regions [20]

The Water Footprint Network reports that cotton T-shirts and denim have water footprints far higher than polyester items [20]

Cotton jeans: cotton is typically the main driver; production includes cultivation water and processing water [20]

Cotton t-shirts: cultivation water dominates the water footprint over processing steps [20]

The majority of the water footprint for cotton clothing is blue water (irrigation) in many cases [20]

In the global textile supply chain, water stress is concentrated in hotspots where irrigation depends on limited freshwater [22]

A life-cycle assessment indicates blue water accounts for a large portion of the water footprint of cotton garments [18]

Water use in cotton production is a major share of total water footprints in garments [22]

Water footprint of denim jeans is much higher than polyester alternatives due to cotton cultivation [22]

The average water footprint for a kg of cotton fabric has been estimated around 10,000 liters [15]

A shift to reuse/repair of clothing can reduce water footprints by lowering demand [23]

The Ellen MacArthur Foundation estimates that circular systems could reduce virgin materials by 60%, which would reduce associated water use [24]

The same report notes that a circular economy for textiles could reduce greenhouse gas emissions by 30% and water use from production [24]

Reuse extends clothing life; delaying discarding reduces environmental impacts including water [24]

Increasing average use duration of clothing by 9 months can reduce environmental impacts including water [24]

Proper washing at lower temperatures can reduce energy and potentially water; lower temperatures use less water per cycle [25]

A BAT (best available techniques) reference document for textiles indicates water use reduction measures can lower water usage by substantial percentages [26]

The EU BREF for textiles documents that counter-current washing can significantly reduce water consumption [26]

The EU BREF also covers low-liquor dyeing to reduce water consumption in dyehouses [26]

The EU BREF indicates recycling and reuse of rinse water can reduce freshwater intake [26]

Reverse osmosis and membrane filtration can reduce water intake in textile wastewater reuse [27]

Evaporation/condensation reuse can significantly reduce freshwater use [27]

Cleaner production measures can reduce water consumption in finishing by 30–50% [28]

Wet processing improvements can reduce water use per kg fabric by 20–60% depending on technology [28]

Dyehouse water use can be reduced using automated dosing and controls, saving water and chemicals [28]

Using recycled polyester reduces water footprint relative to virgin polyester, with lower water requirements reported in assessments [29]

Textile recycling increases can reduce demand for new fiber and thus reduce water use [24]

Extending garment life by 50% can reduce environmental impacts; water footprint is included among impacts [19]

Textile reuse/recycling can reduce water and energy per unit garment compared with new production [19]

Policies and corporate initiatives focus on water efficiency and water treatment in textile manufacturing [30]

Reuse of rinse water can reduce water consumption by around 40% in dyeing facilities [27]

Zero liquid discharge (ZLD) systems aim to eliminate wastewater discharges, effectively reducing freshwater withdrawal used in treatment [27]

Membrane bioreactor/RO systems can enable high recovery rates of treated water (often >80%) [27]

Best practice can reduce water use in dyehouses using low liquor ratio dyeing to around 5–10:1 liquor ratio [26]

The textile BREF mentions liquor ratio reduction as a key water-saving measure [26]

The textile BREF describes water reuse of scouring/bleaching process water to reduce freshwater consumption [26]

The textile BREF states that washing and rinsing water can be recycled by membrane filtration [26]

Countercurrent washing can reduce water use in scouring and bleaching, often by 30–50% [26]

Low-liquor dyeing can reduce water use compared with conventional methods by 30–70% [26]

Automated dosing can reduce water and chemical use by improving process control [26]

Recycled water systems can allow significant reductions of direct water withdrawal [27]

The textile sector is estimated to use 20% of industrial water pollution and 10% of global wastewater [31]

The textile sector accounts for about 20% of industrial water pollution [32]

Textile dyeing effluent is often highly polluted with dyes, salts, and chemicals, with major water use impacts [12]

Dyehouse discharge can include high chemical oxygen demand and color, contributing to high water quality impacts [12]

Many wastewater treatment systems in textile clusters discharge untreated or partially treated effluent, increasing water impacts [33]

Textile wastewater is estimated to be responsible for around 10% of global wastewater [31]

The fashion industry produces about 20% of global industrial wastewater [34]

When wastewater is not treated, dyeing and finishing chemicals remain in water bodies [35]

In life-cycle impact assessment, the water-related impact from textile manufacturing includes both consumption and pollution effects [36]

Wet processing is typically the largest driver of water-related impacts in textiles [36]

OECD reports that textile production and processing can contribute heavily to water impacts, including pollution and water use [37]

Microfiber shedding from synthetics is a water pollution concern linked to washing practices [38]

A review paper reports that dyeing and finishing can account for substantial water use and pollution [28]

Textile wastewater can include 100–300 g/L of dissolved solids depending on processes [28]

Typical textile dye effluent COD values can range from 1,000 to 20,000 mg/L [28]

Color removal is a challenge because dyes resist biodegradation, affecting water bodies [28]

Textile wastewater can contribute significant salinity and high electrolytes to receiving waters [28]

Textile wet processing effluent can have pH in a range often around 9–11 depending on dyeing/finishing [28]

The textile industry uses about 93 billion cubic meters of water per year globally [30]

Apparel and footwear production consumes 79 billion cubic meters of water per year globally [30]

The production stage is estimated to use around 2,000 liters of water per person per year in the EU for textile-related consumption [39]

Manufacturing textiles accounts for 0.5% of global freshwater withdrawal [37]

Water use for textile production has been estimated at 79% of total impacts for clothing when considering freshwater use across life cycle stages [40]

The global clothing consumption water footprint is estimated at about 79 billion m3/year [41]

Fashion clothing is responsible for an estimated 2,500 liters of water per person per year when considering the water footprint of clothing [42]

The global apparel sector growth is associated with rising water use and wastewater [30]

Textile manufacturing accounts for 20% of global industrial water pollution and 4% of global water withdrawals [43]

The UNEP report states that producing 1 ton of textiles can require thousands of cubic meters of water [30]

A research review reports that textile wet processing can represent the majority of freshwater use for man-made fibers as well [17]

The average water footprint of clothing consumption in the EU is estimated around 1,000 m3 per capita per year [44]

According to OECD, textile manufacturing is a major contributor to freshwater use impacts in supply chains [37]

The Ellen MacArthur Foundation estimates that the fashion industry uses a lot of water and relies on resource extraction, with water being a key environmental impact [24]

Textile sector consumes large amounts of water mainly through cotton, viscose, and dyeing stages [30]

Fast fashion increases turnover and thus increases demand for water-intensive fibers like cotton [10]