A Bio CNG Plant Setup Consultant in India helps entrepreneurs, investors, farmers, sugar mills, dairy businesses, municipal bodies, food-processing companies, waste-management companies, and industrial groups plan and establish commercially viable Bio-CNG or Compressed Biogas plants.

A successful Bio-CNG project requires much more than purchasing a biogas plant. Before investment, the promoter needs to evaluate feedstock availability, gas yield, plant capacity, technology, land, machinery, digestate management, gas purification, compression, storage, environmental approvals, project cost, operating expenses, Bio-CNG offtake, financing, and profitability.

The commercial viability of a Bio-CNG project depends heavily on whether sufficient feedstock can be collected every day at a predictable cost. A technically advanced plant can still become financially weak if feedstock supply is seasonal, transportation distances are high, gas yield is overestimated, or the Bio-CNG buyer is not identified beforehand.

Green Permits Consulting supports Bio-CNG projects from feasibility study and DPR preparation to feedstock assessment, technology selection, plant layout, financial modelling, environmental approvals, subsidy and funding assessment, and project implementation planning.

What is a Bio-CNG Plant?

A Bio-CNG plant converts biodegradable organic material into biogas through anaerobic digestion.

The raw biogas generally contains:

• Methane
• Carbon dioxide
• Moisture
• Hydrogen sulphide
• Other trace gases

The gas is purified to increase methane concentration and then compressed to produce Bio-CNG or Compressed Biogas suitable for the intended commercial application.

A simplified process is:

Organic Feedstock → Pre-Treatment → Anaerobic Digestion → Raw Biogas → Gas Purification → Compression → Bio-CNG

The digestion process also generates digestate, which can potentially be processed into manure or other useful agricultural products depending on its characteristics and applicable requirements.

Bio-CNG vs Biogas

Biogas and Bio-CNG are related but not identical.

Biogas

is the raw gas produced during anaerobic digestion.

It typically contains methane along with carbon dioxide, moisture, hydrogen sulphide, and other impurities.

Bio-CNG

is upgraded biogas from which undesirable components are substantially removed and the methane concentration is increased before compression.

Therefore:

Biogas Production + Purification + Compression = Bio-CNG

The purification and compression systems are critical parts of a commercial Bio-CNG plant.

What Feedstocks Can Be Used for Bio-CNG?

A Bio-CNG plant can use several organic feedstocks depending on location and technology.

Common feedstocks include:

• Cattle dung
• Press mud
• Napier grass
• Sugar industry residues
• Agricultural residues
• Paddy straw
• Maize silage
• Poultry litter
• Food waste
• Vegetable market waste
• Fruit waste
• Municipal organic waste
• Distillery organic residues
• Dairy waste
• Sewage sludge
• Other biodegradable organic materials

Each feedstock has a different:

• Moisture content
• Organic content
• Biogas yield
• Methane potential
• Collection cost
• Storage requirement
• Seasonal availability

A feedstock study should therefore be completed before selecting the plant capacity.

Why Feedstock is the Most Important Part of a Bio-CNG Project

A Bio-CNG plant needs feedstock every day.

For example, if a project requires 100 tonnes of feedstock per day, the promoter should establish where those 100 tonnes will come from throughout the year.

The study should assess:

Available Quantity → Collection Radius → Seasonal Variation → Delivered Cost → Gas Yield

A project should not assume that all biomass or waste available within a district can economically reach the plant.

Transportation can significantly change project economics.

Feedstock Catchment Area

The ideal feedstock catchment depends on:

• Feedstock density
• Transport cost
• Road conditions
• Vehicle capacity
• Daily plant requirement
• Seasonal availability

High-moisture feedstocks can become expensive to transport over long distances because a significant portion of the transported weight is water.

Feedstock logistics should therefore be included in the DPR rather than treated as a minor operating expense.

Bio-CNG from Cattle Dung

Cattle dung is commonly considered for Bio-CNG projects in regions with:

• Dairy farms
• Gaushalas
• Cattle clusters
• Rural livestock activity

The project should determine:

• Number of cattle
• Recoverable dung per animal
• Collection efficiency
• Distance from plant
• Competing use of dung
• Seasonal variation
• Delivered cost

A large cattle population does not automatically mean the complete dung quantity can be collected commercially.

Bio-CNG from Press Mud

Press mud from sugar mills can be an attractive feedstock for Compressed Biogas projects.

Important considerations include:

• Sugar mill crushing season
• Annual press mud generation
• Storage
• Moisture
• Transportation
• Alternative uses
• Supply agreement

Because press mud generation can be seasonal, the project may need storage planning or additional feedstocks for year-round plant operation.

Bio-CNG from Napier Grass

Napier grass is an energy crop that can be used in anaerobic digestion projects.

The feasibility study should evaluate:

• Agricultural land
• Yield per acre
• Irrigation
• Harvesting cycles
• Fertiliser cost
• Transportation
• Chopping
• Storage
• Delivered feedstock cost

The project should calculate how much land is required to supply the plant annually rather than evaluating only crop yield per harvest.

Bio-CNG from Agricultural Residue

Agricultural residue can include:

• Paddy straw
• Wheat straw
• Maize residue
• Sugarcane residue
• Other crop biomass

Such materials may require:

• Collection
• Baling
• Storage
• Size reduction
• Pre-treatment
• Controlled feeding

Seasonality and storage losses are important considerations.

Bio-CNG from Food Waste

Food waste can potentially produce strong biogas yields because of its high organic content.

Sources can include:

• Hotels
• Restaurants
• Food-processing facilities
• Institutional kitchens
• Markets
• Supermarkets
• Municipal collection systems

However, food waste may contain contaminants such as:

• Plastic
• Packaging
• Metal
• Glass
• Cutlery

A proper segregation and pre-treatment system is therefore important.

Municipal Organic Waste Bio-CNG Plant

Municipal organic waste projects generally require strong source-segregation systems.

If mixed municipal waste is supplied directly to the plant, contamination can create operational problems.

The project should assess:

Waste Generation → Source Segregation → Collection → Pre-Treatment → Organic Fraction → Digestion

Contamination control can significantly influence both plant efficiency and digestate quality.

How to Select Bio-CNG Plant Capacity

Plant capacity should be based primarily on feedstock.

A consultant should first determine:

• Available feedstock per day
• Collection reliability
• Expected gas yield
• Target Bio-CNG production
• Operating days

A plant should not be sized solely according to the promoter's investment budget.

For example, a project designed for 5 tonnes of Bio-CNG per day should have sufficient feedstock and realistic methane potential to support this output continuously.

Feedstock-to-Bio-CNG Conversion

There is no universal conversion factor applicable to all feedstocks.

Gas production depends on:

• Volatile solids
• Organic composition
• Moisture
• Retention time
• Digester temperature
• Feed preparation
• Biological performance
• Methane percentage

The feasibility study should therefore use feedstock-specific laboratory or validated technical assumptions.

Overestimating gas yield is one of the most serious financial risks in Bio-CNG projects.

Step 1: Conduct Bio-CNG Feasibility Study

The project should begin with a feasibility study.

The study can evaluate:

• Feedstock
• Market
• Land
• Technology
• Gas yield
• Capacity
• Machinery
• Utilities
• Approvals
• CAPEX
• OPEX
• Revenue
• Financing
• Project risks

The objective is to determine whether the project should proceed before major capital expenditure.

Step 2: Conduct Feedstock Survey

The consultant maps potential suppliers around the proposed project.

The survey should estimate:

• Supplier
• Feedstock type
• Daily quantity
• Annual quantity
• Distance
• Price
• Transportation
• Seasonality
• Existing usage

This data forms the foundation of the project.

Step 3: Conduct Feedstock Testing

For larger projects, representative feedstock testing can help estimate:

• Total solids
• Volatile solids
• Moisture
• Organic loading potential
• Biogas potential
• Methane potential
• Contaminants

This can improve the reliability of plant design and financial projections.

Step 4: Finalise Product Strategy

The promoter should decide how the Bio-CNG will be sold.

Potential markets can include:

• Oil marketing company offtake
• Industrial gas replacement
• Commercial fuel users
• Vehicle fuel applications
• Captive industrial use
• Other eligible buyers

The commercial route should be investigated before plant construction.

Step 5: Select the Site

Bio-CNG site selection should consider:

• Feedstock proximity
• Land use
• Road access
• Water availability
• Electricity
• Gas evacuation
• Bio-CNG buyer distance
• Digestate handling
• Environmental suitability
• Storage
• Expansion potential

A cheaper land parcel far from feedstock can result in higher lifetime operating costs.

Land Requirement for Bio-CNG Plant

Land requirement depends on:

• Plant capacity
• Feedstock
• Storage
• Digester type
• Pre-treatment
• Gas purification
• compression
• digestate processing
• utilities
• internal roads

The site may need areas for:

• Feedstock reception
• Feedstock storage
• Pre-processing
• Digesters
• Gas holders
• Purification
• Compression
• Bio-CNG storage
• Digestate treatment
• Fertiliser storage
• Utilities
• Fire safety
• Administration

The layout should also allow vehicle movement.

Step 6: Select Anaerobic Digestion Technology

Digester design depends heavily on the feedstock.

Technology options may include:

• Continuous stirred tank reactor
• Plug-flow digestion
• Dry digestion
• Wet digestion
• Other feedstock-specific systems

Technology should be selected according to the characteristics of the raw material rather than only the vendor's standard design.

Digester Retention Time

Retention time affects:

• Digester volume
• Gas production
• Biological stability
• Project CAPEX

A longer retention time usually requires larger digestion volume.

The appropriate design depends on:

• Feedstock
• temperature
• loading rate
• digestion technology
• process biology

The DPR should use technology-specific design assumptions.

Step 7: Plan Feedstock Pre-Treatment

Depending on the feedstock, pre-treatment can include:

• Sorting
• Shredding
• Crushing
• Chopping
• Pulping
• Slurry preparation
• Contaminant removal

For agricultural biomass, size reduction may be important.

For food waste, contaminant removal becomes critical.

The pre-treatment system can materially affect digester performance.

Step 8: Design Anaerobic Digestion System

The digestion system may include:

• Feed tanks
• Mixing system
• Digesters
• Heating system
• Pumps
• Agitators
• Gas holders
• Instrumentation
• Biological monitoring

The plant should be designed for stable biological operation rather than maximum theoretical loading.

Step 9: Gas Purification System

Raw biogas needs purification before compression.

The system may remove:

• Hydrogen sulphide
• Carbon dioxide
• Moisture
• Other impurities

Common gas upgrading technologies can include:

• Pressure Swing Adsorption
• Membrane separation
• Water scrubbing
• Chemical absorption
• Other gas-treatment systems

Technology selection should consider:

• Methane recovery
• Energy consumption
• Gas purity
• Maintenance
• Operating cost
• Capital cost

Methane Loss During Purification

Methane recovery is an important commercial parameter.

If significant methane is lost during purification, the plant's saleable Bio-CNG output falls even when raw biogas production is strong.

Technology comparison should therefore consider:

Raw Biogas Input → Methane Recovery → Saleable Bio-CNG

not only purification-equipment purchase price.

Step 10: Bio-CNG Compression

After purification, the gas is compressed to the required pressure for the intended storage and supply configuration.

The compression system can include:

• Compressor
• Cascade storage
• Gas dryer
• Safety systems
• Metering
• Filling arrangement

The exact configuration depends on how the gas will be supplied to buyers.

Bio-CNG Storage Planning

Compressed gas storage requires careful engineering and safety planning.

The project should assess:

• Daily production
• Dispatch frequency
• Cascade capacity
• Gas storage
• Emergency systems
• Safety distances
• Applicable regulatory approvals

Storage should not be designed independently of the planned offtake system.

Step 11: Digestate Management

Digestate is a major output of anaerobic digestion.

It should not be treated simply as waste.

Depending on its composition and applicable standards, digestate can potentially be processed into:

• Solid manure
• Liquid fertiliser
• Soil-conditioning products

The DPR should estimate:

Feedstock Input → Digestate Output → Solid-Liquid Separation → Product / Disposal Route

A plant producing large volumes of digestate without an identified market can face operational problems.

Solid-Liquid Separator

Digestate may be processed using a separator to produce:

Solid Fraction

and

Liquid Fraction

The solid fraction may undergo further drying or composting.

The liquid fraction may be reused or treated depending on plant requirements and applicable environmental conditions.

Step 12: Prepare Water Balance

Water may be required for:

• Slurry preparation
• Cleaning
• Cooling
• Domestic use
• Utilities

The project should prepare:

Fresh Water → Process → Recovery / Reuse → Wastewater

Water recycling can reduce operating costs and freshwater demand.

Step 13: Prepare Energy Balance

A Bio-CNG plant itself consumes energy.

Major loads can include:

• Pumps
• Agitators
• Feed preparation
• Gas purification
• Compressors
• Digestate treatment
• Utilities

The DPR should calculate:

Electricity Consumed per Day

and

Electricity Cost per kg of Bio-CNG

because compression and purification can significantly affect operating expenses.

Bio-CNG Plant Machinery

Depending on technology, major equipment may include:

• Feedstock handling system
• Shredder
• Chopper
• Mixing tank
• Feeding system
• Digesters
• Agitators
• Pumps
• Gas holder
• Desulphurisation system
• Gas purification unit
• Gas dryer
• Compressor
• Cascade storage
• Digestate separator
• Fertiliser processing equipment
• Electrical and automation systems

The final machinery configuration should follow process engineering.

Bio-CNG Plant Layout

A practical layout may follow:

Feedstock Entry

↓

Weighbridge

↓

Feedstock Storage

↓

Pre-Treatment

↓

Feed Preparation

↓

Anaerobic Digesters

↓

Gas Holder

↓

Gas Purification

↓

Compression

↓

Bio-CNG Storage / Dispatch

and separately:

Digestate → Solid-Liquid Separation → Manure / Treatment

Material and vehicle movement should be considered carefully.

Environmental Approvals for Bio-CNG Plant

Depending on the plant, location, feedstock, and capacity, environmental approvals may need to include:

• Consent to Establish from SPCB/PCC
• Consent to Operate
• Waste-management permissions where applicable
• Water or groundwater-related approvals where applicable
• Local approvals
• Fire and safety requirements
• Other project-specific environmental permissions

The regulatory matrix should be developed during DPR preparation rather than after construction.

Consent to Establish

The applicable State Pollution Control Board may review factors such as:

• Feedstock
• Capacity
• Process
• Water
• Wastewater
• Air emissions
• Digestate
• Odour control
• Waste handling

The project should ideally obtain required establishment-stage approvals before major construction and installation.

Consent to Operate

After the plant has been installed, applicable operating consent may need to be obtained before regular commercial operations.

The actual facility should correspond with the approved:

• Capacity
• Process
• Machinery
• Pollution controls
• Water consumption
• Waste-management system

Major changes may require further regulatory review.

Odour Control in Bio-CNG Plants

Odour can become a significant community and environmental issue if feedstock is poorly managed.

Odour sources can include:

• Incoming waste
• Storage
• Slurry preparation
• Digestate
• Wastewater

Controls can include:

• Enclosed reception
• Rapid feedstock processing
• Covered storage
• Proper housekeeping
• Biofilters or other odour-control systems
• Digestate management

Site design should consider nearby residential areas.

Fire and Gas Safety

Bio-CNG contains a high proportion of methane and is combustible.

Safety systems may include:

• Gas detection
• Pressure controls
• Flame arrestors
• Emergency shutdown
• Fire protection
• Earthing
• Electrical classification
• Controlled access
• Ventilation

The final design should follow applicable technical and regulatory requirements.

PESO-Related Assessment

Depending on the gas compression, storage, cascade, and dispensing arrangement, applicable requirements associated with compressed gas safety may need to be assessed.

PESO applicability should therefore be checked based on the actual plant configuration rather than assumed for every project in the same way.

Bio-CNG Plant CAPEX

The investment required depends on:

• Plant capacity
• Feedstock
• Digestion technology
• Land
• Civil construction
• Gas purification
• Compression
• Storage
• Feedstock preparation
• Digestate management
• Utilities
• Pollution controls

Commercial Bio-CNG projects can require investment ranging from several crores to significantly larger amounts depending on scale and technology.

A project-specific DPR should be prepared instead of relying on generic "cost per TPD" figures.

Major CAPEX Components

A DPR typically divides capital expenditure into:

Land and Site Development

Land, internal roads, drainage and infrastructure.

Civil Work

Digesters, buildings, tanks, feedstock areas and foundations.

Plant and Machinery

Feed handling, digestion, purification, compression and digestate systems.

Electrical and Utilities

Transformer, electrical panels, cabling, automation and water systems.

Gas Storage and Dispatch

Compression and applicable storage infrastructure.

Environmental and Safety Systems

Wastewater, odour, fire and gas safety.

Pre-Operative Expenses

Engineering, consultancy, approvals, testing and commissioning.

Bio-CNG Plant OPEX

Operating cost can include:

• Feedstock purchase
• Feedstock transportation
• Electricity
• Labour
• Maintenance
• Enzymes or additives, where used
• Water
• Consumables
• Digestate handling
• Insurance
• Compliance
• Administration

Feedstock and transportation can represent a major part of operating expenses.

Feedstock Procurement Cost

Suppose a plant consumes 150 tonnes per day and operates 330 days.

Annual feedstock requirement becomes:

150 × 330 = 49,500 tonnes per year

Even a ₹500 per tonne increase in delivered feedstock cost changes annual expenditure by approximately:

49,500 × ₹500 = ₹2.475 crore

This simple example shows why feedstock economics can significantly affect project profitability.

Bio-CNG Revenue Model

Revenue can potentially come from:

• Bio-CNG sales
• Solid digestate
• Liquid digestate
• Other eligible by-products

A simplified revenue model is:

Bio-CNG Production × Selling Price

Digestate Revenue

=

Total Revenue

The financial model should not assume that all digestate will automatically be sold at a premium price.

A real buyer network is required.

Bio-CNG Offtake Planning

A Bio-CNG project should identify potential buyers before financial closure.

The promoter should assess:

• Expected purchase volume
• Gas specification
• Delivery point
• Transport responsibility
• Cascade logistics
• Price formula
• Contract tenure

An offtake agreement or commercially credible buyer arrangement can significantly improve bankability.

Government Schemes and Support

Bio-CNG projects may potentially benefit from central or state-level programmes, financing support, or incentives depending on the project, feedstock, location, and prevailing policy.

However, promoters should not make the project financially dependent on an assumed subsidy before confirming:

• Eligibility
• Scheme validity
• Application process
• Project conditions
• Disbursement mechanism

A feasibility model should preferably remain commercially understandable even without uncertain incentives.

Bank Loan for Bio-CNG Plant

A bankable project report may be required for:

• Term loan
• Working capital
• Project finance
• Investor funding

The DPR may include:

• Project cost
• Promoter contribution
• Debt
• Revenue projections
• OPEX
• Profit and loss
• Cash flow
• Balance sheet
• DSCR
• Break-even
• Loan repayment
• Sensitivity analysis

The lender may request additional technical or commercial information.

Working Capital Requirement

Bio-CNG projects may need working capital for:

• Feedstock
• Transportation
• Salaries
• electricity
• maintenance
• inventory
• receivables

Working capital should be included in the DPR rather than assuming all project expenditure ends after construction.

Profitability Analysis

A professional DPR should calculate:

• Revenue
• EBITDA
• Net profit
• Cash flow
• Break-even
• Payback period
• Return on investment
• DSCR, where relevant

The project should also be stress-tested.

Bio-CNG Sensitivity Analysis

Important scenarios can include:

Feedstock Cost +10%

Bio-CNG Output -10%

Gas Selling Price -10%

Electricity Cost +15%

Plant Utilisation Lower Than Expected

Digestate Revenue Lower Than Expected

If the project becomes financially weak after a small change in assumptions, the investor should understand that risk before construction.

Common Mistakes While Setting Up a Bio-CNG Plant

Common mistakes include:

• Selecting plant capacity before feedstock survey
• Assuming theoretical gas yields
• Ignoring seasonal feedstock variation
• Underestimating transportation
• Purchasing technology without independent assessment
• Selecting land too far from feedstock
• No Bio-CNG buyer identified
• Ignoring digestate market
• Underestimating electricity consumption
• Insufficient gas storage
• Poor odour-control planning
• Ignoring environmental approvals
• Assuming subsidy before confirming eligibility
• Underestimating working capital
• Assuming 100% plant utilisation from Year 1

Most of these risks can be evaluated during feasibility and DPR preparation.

Step-by-Step Bio-CNG Plant Setup in India

Step 1: Identify Feedstock

Determine the organic material available near the proposed project.

Step 2: Conduct Feedstock Survey

Estimate quantity, seasonality, distance, and delivered cost.

Step 3: Conduct Feasibility Study

Evaluate technical and commercial viability.

Step 4: Select Capacity

Size the plant according to sustainable feedstock availability and realistic gas yield.

Step 5: Identify Bio-CNG Buyer

Evaluate the offtake route before investment.

Step 6: Prepare DPR

Develop technical, regulatory, and financial projections.

Step 7: Select Site

Review feedstock distance, infrastructure, environment, water, power, and gas logistics.

Step 8: Finalise Technology

Select digestion, purification, compression, and digestate systems.

Step 9: Prepare Plant Layout

Plan material flow, digesters, gas systems, utilities, storage, and safety.

Step 10: Obtain Applicable Approvals

Complete SPCB/PCC and other project-specific regulatory requirements.

Step 11: Procure Machinery

Order equipment according to the final engineering design.

Step 12: Construction and Installation

Develop civil structures and install plant machinery.

Step 13: Testing and Commissioning

Start the biological process gradually and stabilise gas production.

Step 14: Gas Purification and Quality Testing

Confirm that upgraded gas meets the required commercial specification.

Step 15: Begin Commercial Production

Start regular feedstock procurement, Bio-CNG production, dispatch, and digestate management.

Detailed Project Report for Bio-CNG Plant

A professional Bio-CNG Plant DPR can include:

• Executive summary
• Promoter profile
• Market analysis
• Feedstock study
• Feedstock catchment map
• Feedstock cost
• Gas-yield assumptions
• Plant capacity
• Technology
• Process flow
• Machinery
• Plant layout
• Land
• Utilities
• Manpower
• Environmental approvals
• Safety
• Digestate strategy
• CAPEX
• OPEX
• Working capital
• Revenue
• Profitability
• Break-even
• Cash flow
• DSCR
• Sensitivity analysis
• Implementation schedule
• Risk assessment

This provides the promoter, lender, or investor with a structured project evaluation.

Bio-CNG Plant DPR for Investors

An investor-oriented DPR should focus especially on:

• Feedstock security
• Offtake security
• Gas yield
• Capacity utilisation
• CAPEX
• Operating cost
• EBITDA
• Cash generation
• Project risk
• Scalability

The assumptions should be clearly explained rather than presenting only projected returns.

Bio-CNG Plant DPR for Bank Finance

For debt funding, the report can additionally include:

• Means of finance
• Loan requirement
• Repayment
• Interest
• Depreciation
• Projected financial statements
• DSCR
• Break-even
• Working capital

Actual lender requirements may differ.

How Green Permits Helps with Bio-CNG Plant Setup in India

Green Permits Consulting supports entrepreneurs, corporates, waste-management companies, agricultural businesses, and investors throughout the Bio-CNG project development cycle.

Our services can include:

• Bio-CNG Feasibility Study
• Feedstock Assessment
• Feedstock Catchment Study
• Bio-CNG Plant DPR
• Bankable DPR
• Technology Assessment
• Plant Capacity Planning
• Machinery Planning
• Plant Layout
• Process Flow
• Material Balance
• Water Balance
• Gas Yield Assessment
• Digestate Management Planning
• CAPEX and OPEX Analysis
• Profitability Assessment
• Funding and Subsidy Assessment
• Environmental Approval Planning
• CTE and CTO Support
• Project Implementation Roadmap

The objective is to evaluate the project commercially and technically before substantial capital is committed.

Why Choose Green Permits as Your Bio CNG Plant Setup Consultant in India?

Bio-CNG projects involve the integration of agriculture, waste management, biological processing, gas purification, engineering, financing, and environmental compliance.

Green Permits helps connect:

Feedstock → Gas Yield → Capacity → Technology → Land → Machinery → Approvals → Investment → Bio-CNG Offtake → Profitability

This integrated approach helps promoters avoid building projects around unrealistic feedstock or financial assumptions.

Learn More About Bio CNG Plant Setup

If you are planning a Bio-CNG or Compressed Biogas project using cattle dung, press mud, Napier grass, agricultural residue, food waste, municipal organic waste, poultry litter, or other biomass, a feasibility study and DPR can help determine feedstock requirements, plant capacity, technology, machinery, project cost, operating expenses, approvals, revenue, and expected financial viability before investment.

Read more about Bio-CNG plant DPR and project consulting here:

👉 https://www.greenpermits.in/07/bio-cng-plant-setup-in-india-cost-and-approval-guide/

📞 Get Expert Assistance for Bio CNG Plant Setup in India

If you need help with Bio CNG Plant Setup in India, feasibility study, DPR preparation, feedstock assessment, plant capacity, machinery planning, financial modelling, environmental approvals, subsidy assessment, or project implementation planning, Green Permits Consulting can assist you.

🌐 Website: www.greenpermits.in

📞 Phone: +91 78350 06182

📧 Email: [email protected]

Book a consultation with Green Permits Consulting for Bio-CNG plant setup, DPR, and project advisory support in India.