Greenhouse Gas Inventory Services for the Fabric Finishing Industry Sector

The Fabric Finishing Industry is an important part of the textile sector that focuses on processing and improving fabrics to enhance their quality, appearance, durability, and functionality. Fabric finishing can include washing, dyeing, printing, coating, drying, heat treatment, and other processes that transform basic textile materials into finished products with specific characteristics.

However, many activities in the Fabric Finishing Industry require significant amounts of electricity, thermal energy, water, steam, and chemicals. These activities can generate direct and indirect greenhouse gas emissions throughout the production process and supply chain.

For this reason, companies in the Fabric Finishing Industry need to understand where greenhouse gas emissions originate and how those emissions can be reduced. One of the most important starting points is preparing a structured Greenhouse Gas Inventory or GHG Inventory.

A GHG Inventory can help companies calculate Scope 1, Scope 2, and relevant Scope 3 emissions, identify major carbon hotspots, establish an emissions baseline, develop reduction strategies, and monitor environmental performance over time.

What Is the Fabric Finishing Industry?

The Fabric Finishing Industry includes activities that improve textile materials after the basic fabric has been produced.

The objective is to enhance the aesthetic or functional characteristics of the fabric.

Depending on the product, finishing processes may improve:

• Color.
• Texture.
• Softness.
• Surface appearance.
• Dimensional stability.
• Water resistance.
• Wrinkle resistance.
• Flame resistance.
• Other functional properties.

Finished fabrics can then be used for clothing, household textiles, uniforms, industrial textiles, interior products, and various other applications.

Production Processes in the Fabric Finishing Industry

The Fabric Finishing Industry may involve several processing stages, each of which can consume energy, water, chemicals, or other resources.

1. Washing

Washing is used to remove dirt, oils, sizing agents, residues, or other contaminants from textile materials.

This process can require:

• Water.
• Detergents.
• Heat.
• Pumping energy.
• Wastewater treatment.

If hot water or steam is required, washing can also contribute indirectly to greenhouse gas emissions through fuel or electricity consumption.

2. Dyeing

Dyeing provides the required color to textile materials.

Depending on the fiber type and production technology, the process can involve:

• Dyes.
• Chemical auxiliaries.
• Water.
• Heat.
• Steam.
• Electricity.

Dyeing can be one of the more resource-intensive processes in the Fabric Finishing Industry.

3. Coating

Coating can add specific functional properties to fabric.

Examples may include:

• Water resistance.
• Flame resistance.
• Protective surfaces.
• Special textures.

The environmental profile depends on the coating material, drying requirements, energy consumption, and production technology.

4. Finishing

Finishing is used to provide the final characteristics required by customers.

Operations may include:

• Drying.
• Heat setting.
• Calendaring.
• Softening.
• Chemical treatment.
• Mechanical treatment.

Environmental Impact of the Fabric Finishing Industry

The Fabric Finishing Industry can create different environmental impacts depending on production technology, resource consumption, chemical selection, wastewater treatment, and management practices.

Water Pollution

Wastewater from washing, dyeing, printing, coating, and other finishing processes can contain dyes, chemicals, dissolved solids, organic substances, and other contaminants.

If wastewater is not properly treated, it can negatively affect surrounding water bodies.

Air Emissions

Boilers, dryers, generators, thermal-processing equipment, and certain chemical processes may generate air emissions.

Greenhouse gases should be distinguished from other air pollutants because they have different environmental effects and monitoring requirements.

High Water Consumption

Some finishing processes can require substantial amounts of water, particularly:

• Washing.
• Rinsing.
• Dyeing.
• Chemical preparation.

Improving water efficiency can reduce both environmental impacts and operational costs.

Energy Consumption

Energy can be required for heating, drying, pumping, ventilation, compressed air, motors, and other production processes.

Reducing unnecessary energy consumption can lower both greenhouse gas emissions and operating costs.

Greenhouse Gas Emission Sources in the Fabric Finishing Industry

The Fabric Finishing Industry can generate greenhouse gas emissions from several sources.

1. Fuel Combustion

Fossil fuels may be used in:

• Boilers.
• Dryers.
• Generators.
• Heat-treatment equipment.

The combustion of fossil fuels generates direct carbon dioxide emissions.

2. Electricity Consumption

Electricity is commonly used by:

• Dyeing machines.
• Pumps.
• Motors.
• Printing systems.
• Dryers.
• Compressors.
• Ventilation equipment.

Purchased electricity can contribute to Scope 2 emissions.

3. Purchased Chemicals

Dyes, coatings, detergents, resins, and finishing agents can have embedded greenhouse gas emissions from their upstream manufacturing processes.

However, chemical use should not automatically be treated as a direct source of CO₂ or N₂O emissions.

The actual carbon impact depends on chemical composition, production route, quantity used, and the carbon-footprint methodology applied.

4. Transportation

Transportation of raw fabrics, chemicals, packaging, and finished products can generate CO₂ emissions from fuel combustion.

5. Wastewater Treatment

Wastewater containing organic material can generate greenhouse gases depending on the treatment process.

Under certain anaerobic conditions, methane may be generated.

Nitrous oxide may also arise from some biological nitrogen-treatment processes.

6. Waste Management

Solid waste treatment, transportation, recycling, incineration, or disposal can also contribute to greenhouse gas emissions depending on the waste-management route.

Scope 1 Emissions in the Fabric Finishing Industry

Scope 1 includes direct greenhouse gas emissions from sources owned or controlled by the company.

Potential Scope 1 sources in the Fabric Finishing Industry include:

• Natural gas used in boilers.
• Diesel used in generators.
• Fuel consumed by company-owned vehicles.
• Fuel used for direct process heating.

Companies can reduce Scope 1 emissions through energy efficiency, fuel switching, electrification, heat recovery, and improved process control.

Scope 2 Emissions in the Fabric Finishing Industry

Scope 2 covers indirect greenhouse gas emissions associated with purchased electricity, steam, heat, or cooling.

The Fabric Finishing Industry can have significant electricity demand because of motors, pumps, dryers, ventilation systems, compressors, printing machines, and other production equipment.

Potential Scope 2 reduction strategies include:

• Energy-efficient equipment.
• Improved machine utilization.
• Solar photovoltaic systems.
• Other lower-carbon electricity options where appropriate.

Scope 3 Emissions in the Fabric Finishing Industry

Scope 3 includes other indirect greenhouse gas emissions occurring throughout the company’s value chain.

Relevant Scope 3 categories may include:

• Purchased unfinished fabric.
• Dyes and chemicals.
• Packaging materials.
• Third-party transportation.
• Waste treatment.
• Capital equipment.
• Other purchased goods and services.

For companies that specialize in finishing rather than producing fibers or fabrics themselves, purchased fabric can represent an important upstream carbon source.

Why the Fabric Finishing Industry Needs a GHG Inventory

A GHG Inventory can provide the Fabric Finishing Industry with a structured understanding of greenhouse gas emissions.

The main benefits include:

Identify Emission Sources

Companies can determine whether emissions are primarily associated with:

• Fuel.
• Electricity.
• Purchased fabric.
• Chemicals.
• Transportation.
• Waste treatment.

Establish an Emission Baseline

The inventory can provide a reference year against which future emission reductions can be measured.

Identify Carbon Hotspots

Companies can determine which activities contribute the largest share of total emissions.

Establish Reduction Targets

Reliable emissions data can support measurable short-term and long-term greenhouse gas reduction targets.

Improve Transparency

GHG information can provide stakeholders with clearer information about the company’s environmental performance.

How to Prepare a GHG Inventory for the Fabric Finishing Industry

1. Define Organizational Boundaries

The company should determine which:

• Facilities.
• Operations.
• Subsidiaries.
• Production lines.

are included in the inventory.

2. Identify Emission Sources

Identify relevant Scope 1, Scope 2, and Scope 3 emission sources.

3. Collect Activity Data

Companies may need:

• Electricity bills.
• Fuel records.
• Production volumes.
• Steam consumption.
• Raw material information.
• Chemical consumption.
• Transportation data.
• Waste records.

4. Select Emission Factors

Appropriate emission factors should be selected for each activity.

The source, methodology, reporting year, and assumptions should be documented.

5. Calculate GHG Emissions

A common calculation principle is:

GHG Emissions = Activity Data × Emission Factor

Different greenhouse gases can then be expressed as CO₂ equivalent or CO₂e.

6. Review Data Quality

Companies should check:

• Completeness.
• Consistency.
• Accuracy.
• Documentation.

7. Identify Reduction Opportunities

The final inventory should be used to identify practical reduction priorities rather than remaining only as a reporting exercise.

7 Strategies to Reduce Emissions in the Fabric Finishing Industry

1. Improve Energy Efficiency

Energy efficiency can provide substantial opportunities for emission reduction.

Companies can evaluate:

• Boilers.
• Dryers.
• Stenters.
• Motors.
• Pumps.
• Compressors.
• Steam systems.

2. Use Renewable Energy

Where technically feasible, renewable energy can reduce greenhouse gas emissions associated with electricity consumption.

Options may include:

• On-site solar photovoltaic systems.
• Renewable electricity procurement.
• Other appropriate renewable-energy sources.

3. Optimize Dyeing Processes

Improved process control can reduce water, steam, electricity, and chemical consumption.

Companies can optimize:

• Temperature.
• Batch duration.
• Liquor ratio.
• Machine loading.
• Rinsing.

4. Improve Wastewater Management

Wastewater-treatment improvements can reduce environmental impacts and, in some cases, greenhouse gas emissions.

Facilities can improve:

• Wastewater segregation.
• Biological treatment.
• Chemical treatment.
• Monitoring.
• Sludge management.

5. Implement Water Recirculation

Recirculating water systems can reduce freshwater consumption and wastewater volumes.

Water reuse can be particularly valuable for facilities with high washing and rinsing requirements, provided water quality remains suitable for the intended process.

6. Improve Chemical Management

Companies can reduce unnecessary chemical consumption by improving dosing accuracy and process control.

Where suitable alternatives are available, companies can also evaluate chemicals with improved environmental and occupational-safety profiles.

7. Conduct Regular GHG Inventories

A GHG Inventory should be updated periodically so companies can determine whether reduction measures are producing measurable results.

Energy Efficiency in the Fabric Finishing Industry

Energy efficiency is particularly important because heating and drying can be major energy users.

Companies can monitor indicators such as:

• kWh per kilogram of finished fabric.
• Fuel consumption per kilogram of fabric.
• Steam consumption per production batch.

Comparing these indicators over time can help identify inefficiencies and improvement opportunities.

Heat Recovery in the Fabric Finishing Industry

The Fabric Finishing Industry may have opportunities to recover heat from:

• Hot wastewater.
• Dryer exhaust.
• Steam condensate.
• Other heated process streams.

Recovered energy can potentially reduce the amount of new thermal energy required by the facility.

Water Efficiency in the Fabric Finishing Industry

Water-efficiency programs can include:

• Water-metering systems.
• Counter-current rinsing.
• Leak detection.
• Water reuse.
• Process optimization.

Reducing hot-water demand can also provide energy and carbon benefits.

Cleaner Technology for the Fabric Finishing Industry

New technologies can help reduce resource consumption.

Potential examples include:

• Low-liquor-ratio dyeing machines.
• Digital printing.
• Automated chemical dosing.
• Efficient dryers.
• Advanced process monitoring.

The environmental benefit of any technology should be evaluated using actual performance data rather than assumed automatically.

Companies Operating in the Fabric Finishing Industry

The original source identifies several companies associated with fabric-finishing or broader textile activities in Indonesia, including:

1. CV Indradhanu
2. PT Sinar Abadi Textiles
3. PT Indah Jaya Tekstil
4. PT Sritex
5. PT Pan Brothers Tbk

Each company may have different operational boundaries and production activities.

For this reason, greenhouse gas calculations should use company-specific data and should not assume that every textile company has the same finishing processes.

GHG Inventory Data Needed by the Fabric Finishing Industry

A reliable GHG Inventory requires appropriate activity data.

Relevant information may include:

• Monthly electricity consumption.
• Natural gas consumption.
• Diesel consumption.
• Purchased steam.
• Production volume.
• Raw fabric consumption.
• Chemical usage.
• Waste quantities.
• Transportation information.

GHG Inventory and Carbon Hotspots

Once the inventory is complete, companies can rank emission sources according to their contribution.

Potential carbon hotspots in the Fabric Finishing Industry can include:

• Boiler fuel.
• Electricity.
• Drying.
• Steam.
• Purchased fabric.
• Chemicals.
• Transportation.

The actual result will depend on facility-specific data.

GHG Inventory and Emission Reduction Targets

A GHG Inventory can support the development of measurable emission reduction targets.

Targets can be expressed as:

• Absolute emission reductions.
• Emission intensity reductions.
• Energy-intensity improvements.
• Renewable-energy targets.

Companies should select indicators that are appropriate for their operations and climate strategy.

Monitoring GHG Performance in the Fabric Finishing Industry

Companies can monitor indicators such as:

• Total tCO₂e per year.
• kg CO₂e per kilogram of finished fabric.
• Electricity consumption per kilogram of product.
• Fuel consumption per kilogram of product.
• Steam use per production unit.
• Renewable energy percentage.

Monitoring allows companies to determine whether emission reduction projects are actually producing measurable improvements.

GHG Reduction Cycle for the Fabric Finishing Industry

A practical management cycle can be summarized as:

Measure → Establish Baseline → Identify Carbon Hotspots → Set Targets → Reduce → Monitor → Report → Improve

The process begins with measurement.

The baseline establishes the starting point.

Carbon hotspot analysis identifies priorities.

Emission reduction projects translate targets into action.

Monitoring evaluates whether actual emissions decrease.

Benefits of GHG Inventory for the Fabric Finishing Industry

A structured GHG Inventory can help the Fabric Finishing Industry:

• Understand major greenhouse gas sources.
• Calculate Scope 1 emissions.
• Calculate Scope 2 emissions.
• Evaluate relevant Scope 3 emissions.
• Establish a carbon baseline.
• Identify carbon hotspots.
• Improve energy efficiency.
• Develop emission reduction targets.
• Improve climate-related data quality.
• Monitor progress over time.

How Actia Can Help the Fabric Finishing Industry

Actia provides GHG Inventory assistance for companies operating in the Fabric Finishing Industry.

Support can include:

1. Identify Emission Sources:
   Determine relevant Scope 1, Scope 2, and Scope 3 emission sources.
2. Collect Activity Data:
   Organize electricity, fuel, steam, production, transportation, raw material, and waste data.
3. Calculate GHG Emissions:
   Apply appropriate methodologies and emission factors.
4. Develop the Emission Baseline:
   Establish a reference point for future performance.
5. Identify Carbon Hotspots:
   Determine which processes contribute most significantly to total emissions.
6. Develop Reduction Strategies:
   Identify practical measures for energy efficiency, renewable energy, water management, process optimization, and other improvement areas.
7. Monitoring and Evaluation:
   Track future emissions and evaluate reduction performance.

Actia GHG Inventory Services for the Fabric Finishing Industry

Preparing a GHG Inventory can require collaboration between production, engineering, sustainability, procurement, logistics, finance, and management teams.

Professional assistance can help companies organize data, identify calculation boundaries, select appropriate emission factors, calculate emissions, and develop reduction recommendations.

Actia can support companies throughout this process according to their operational characteristics and reporting objectives.

Click here to discuss GHG Inventory services for the Fabric Finishing Industry with the Actia team.

Fabric Finishing Industry and Long-Term Decarbonization

Reducing greenhouse gas emissions in the Fabric Finishing Industry requires continuous improvement rather than a one-time calculation.

Companies need to understand current emissions, establish a baseline, identify the largest sources, and implement practical reduction projects.

Short-term measures may include:

• Energy monitoring.
• Preventive maintenance.
• Machine optimization.
• Improved production scheduling.

Longer-term measures may involve:

• New boilers.
• Renewable energy.
• Advanced wastewater treatment.
• Heat recovery.
• New dyeing technologies.

The Future of the Fabric Finishing Industry and GHG Management

The Fabric Finishing Industry will continue to play an important role in transforming textile materials into products with improved appearance, performance, durability, and functionality.

At the same time, companies need to manage greenhouse gas emissions, energy consumption, water use, wastewater, chemicals, and other environmental impacts more systematically.

A GHG Inventory provides the foundation for understanding climate performance.

Scope 1 identifies direct greenhouse gas emissions.

Scope 2 captures emissions associated with purchased energy.

Scope 3 helps companies understand other relevant indirect value-chain emissions.

Once greenhouse gas emissions have been calculated, companies can identify carbon hotspots and prioritize practical reductions.

Important opportunities for the Fabric Finishing Industry can include energy efficiency, heat recovery, renewable electricity, improved dyeing technology, water recirculation, better wastewater treatment, chemical optimization, and supplier engagement.

The objective should not be limited to preparing a GHG Inventory report. Companies should use the results to reduce emissions, monitor progress, and continuously improve environmental performance.

Does your company operate in the Fabric Finishing Industry and require assistance with a Greenhouse Gas Inventory? Click here to consult with Actia.