
Project Development
At Bynamic Group, we help organizations navigate the complexities of carbon credit project development, ensuring compliance with global standards like Verra and Gold Standard while optimizing financial and environmental impact.
This Carbon Credit Project Development Roadmap provides a structured approach to streamline the process for emission reduction, avoidance, and removal projects, from initial feasibility to credit issuance and trading.
Each project typically progresses through the following key phases:
Phase 1
Initial Project Screening & Planning
Conduct an initial high-level review to determine if the project is a potential candidate for carbon crediting.
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Phase 2
Feasibility Study & Carbon Standard Selection
Conduct a detailed feasibility study to confirm project viability and select the most suitable carbon standard.
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Phase 3
Stakeholder Engagement & Project Documentation
Secure stakeholder buy-in and prepare necessary documentation for project validation.
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Phase 4
Project Validation & Registration
Validate the project with third-party auditors, ensure transparency through public listing and commenting, and secure final registration.
Phase 5
Project Implementation
Execute the project as per the validated plan and ensure proper deployment of technologies or conservation efforts.
Phase 6
Monitoring, Verification, and Credit Issuance
Ensure project implementation aligns with the monitoring plan and get carbon credits issued.
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Phase 7
Carbon Credit Trading & Compliance Reporting
Ensure proper carbon credit sales and compliance with regulatory requirements.
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With deep expertise in carbon markets, regulatory frameworks, and project validation, we help clients successfully register projects, secure verification, and optimize returns in both voluntary and compliance markets.​
Project Types
At Bynamic Group, we work with a diverse portfolio of high-quality carbon credit projects across three core areas. Each project type plays a unique role in reducing or removing carbon emissions, and all are carefully selected for their impact, integrity, and alignment with global climate goals.
Natural Based Projects
Engineered Projects
Avoidance Projects

Natural Based Projects
We support nature-based carbon removal through projects like reforestation, afforestation, and soil carbon sequestration. These efforts deliver long-term climate impact alongside co-benefits like biodiversity, water retention, and rural development, and are fully eligible for carbon offsetting.
CDR
Remove COâ‚‚ from the atmosphere using natural climate solutions.
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Planting new forests (afforestation) or restoring existing ones (reforestation).
Soil Carbon Sequestration
Improving land practices (e.g., no-till, cover cropping, rotational grazing) to enhance soil organic carbon. Soil stores more CO2 over time.

Engineered Projects
Technologically driven methods to remove COâ‚‚ from the atmosphere, often involving industrial processes or scientific enhancements to accelerate or improve sequestration. These solutions offer immediate and measurable COâ‚‚ removal, enhance soil fertility and water retention, and can be locally implemented and scaled in agricultural regions.
BECCs (Bioenergy with Carbon Capture and Storage)
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Biomass (like wood, switchgrass, or agricultural waste) is burned or fermented to generate energy.
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The COâ‚‚ released during this process is captured and stored underground (geological sequestration) instead of being emitted into the atmosphere.
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Since biomass absorbs COâ‚‚ while growing, capturing the emissions creates net-negative emissions.
BioChar
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Biomass (crop waste, forestry residues, manure) is heated in a low-oxygen environment (pyrolysis), creating biochar.
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This carbon-rich solid is stable and can be added to soils to lock carbon away for centuries while also improving soil quality.

Avoidance Projects
Activities that avoid or reduce the release of COâ‚‚ or other greenhouse gases that would otherwise occur. Instead of removing COâ‚‚ from the atmosphere, avoidance projects focus on preventing COâ‚‚ (or other GHGs) from being emitted in the first place.
CCUS (Carbon Capture, Utilization and Storage)
Avoid releasing COâ‚‚ that’s produced by fossil fuel combustion or industrial processes.
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COâ‚‚ is captured from industrial or power plant emissions.
It's either:
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Stored underground in geological formations (CCS), or
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Used in industrial processes (e.g., enhanced oil recovery, making synthetic fuels or concrete).
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WtE Plants (Waste to Energy Plants)
Reduces reliance on landfills and fossil fuels and displaces grid electricity from higher-emission sources.
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Burns municipal solid waste (MSW) to generate electricity and heat.
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Avoids methane emissions from landfill decomposition (methane is 25x more potent than COâ‚‚).
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Emissions can be reduced further by adding carbon capture to WtE plants.
(CCS) Carbon Capture & Storage
Prevents large-scale point-source emissions from reaching the atmosphere.
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A subset of CCUS focused solely on capture and permanent underground storage (no utilization).
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Applied in sectors like steel, cement, and power generation.
Stored in
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Depleted oil and gas fields
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Deep saline aquifers
Power Generation
Reduces lifecycle emissions from electricity generation and can also include grid decarbonization efforts.
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Switching from coal to natural gas (less COâ‚‚ per kWh).
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Installing renewable energy systems (e.g., solar, wind, hydro).
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Improving energy efficiency in fossil fuel plants.
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