Coca-Cola – Proof of Concept at SSSL ELURU
Coca-Cola – Proof of Concept at SSSL ELURU
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Project Story
Solar Thermal Project at SSSL Eluru: A Strategic Partnership for Industrial Decarbonisation
Climatenza Solar has developed and commissioned an innovative solar thermal system at the Sri Sarvara Sugar & Coca-Cola facility in Eluru, marking a significant milestone in industrial heat decarbonisation. Commissioned on July 24th, 2025, this cutting-edge installation represents a collaborative effort between Climatenza Solar, Coca-Cola, and SSSL to transition from fossil fuel dependency to renewable energy solutions.
Technical Specifications:
48 high-efficiency solar collectors strategically divided into two fields of 24 collectors each
Advanced 8x3 row configuration in each division for optimal solar capture
Integrated Solar Central system connecting solar fields with heat exchanger (HEX) technology
Series integration with SSSL's existing HEX infrastructure
Target output: Hot water generation at 125°C and 2.5 bar pressure
Application: CIP (Clean-in-Place) process heat delivery at 85°C
Performance Achievements:
The system has demonstrated exceptional performance, reaching 100+ degrees Celsius even during cloudy conditions, showcasing the reliability and efficiency of the solar thermal technology. Current testing phases show promising results with consistent hot water output ranging from 8-15 kL/day, scaling to 30-50 kL/day in subsequent phases.
Strategic Impact:
This project serves as a cornerstone for Coca-Cola's carbon offset initiatives and provides a strategic pathway for Scope 1 emission reduction. The installation creates opportunities for carbon credit validation through proven solar process heat methodology, positioning all partners at the forefront of industrial sustainability.
Partnership Framework:
The project includes comprehensive 5-6 month rigorous testing protocols with collaborative monitoring by both Climatenza and SSSL teams. Post-testing, Climatenza will retain operational and maintenance rights, ensuring long-term system performance and reliability.
Verified Impact Data Card
Coca-Cola – Proof of Concept at SSSL ELURU
This project's impact data is structured for Scope 3 Category 15 (Investments) reporting. Verified emissions reductions can be attributed to investor portfolios under the GHG Protocol Corporate Value Chain standard.
CSRD alignment under ESRS E1 (Climate Change) is in preparation and will be available once the EU taxonomy technical screening criteria are finalised for this project category.
Decentralised physical infrastructure network integration
will provide real-time MRV telemetry for this project.
What is this card?
The Verified Impact Data Card summarises the key environmental and assurance metrics for this project. Data is pulled live from VCS assessments and on-chain commitments.
How to read the data
- Emissions Reduction — Estimated annual CO2e avoided or removed, derived from the project's VCS methodology and baseline scenario.
- Overall Score — Composite VCS readiness score (0–100%) covering additionality, permanence, leakage, and MRV quality.
- REC % — Alignment with Renewable Energy Certificate issuance criteria.
- EEC % — Alignment with Energy Efficiency Certificate criteria.
- Phase — Current stage in the project development lifecycle.
- DePIN Integrity — Data integrity score from decentralised sensor network (uptime, calibration, completeness).
Glossary
- VCS — Verified Carbon Standard (Verra), a leading carbon credit certification programme.
- tCO2e/yr — Tonnes of carbon dioxide equivalent per year.
- VVB — Validation/Verification Body, the independent auditor that reviews project claims.
- Evidence Tier — Classification of supporting evidence quality (e.g. Tier 1 = measured data, Tier 3 = default factors).
- Commitment Hash — Cryptographic hash of the assessment data committed to blockchain for tamper-proof audit trail.
- DePIN — Decentralised Physical Infrastructure Network, providing real-time sensor-based MRV data.
- Scope 3 Cat. 15 — GHG Protocol category covering financed emissions from investments.
- CSRD / ESRS E1 — EU Corporate Sustainability Reporting Directive, climate change disclosure standard.
- MRV — Measurement, Reporting, and Verification.
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Investment Calculator
Credits Simulator
EEC & REC Project Credits Simulator v2.4.0
REC Assumptions
Financial Projections
Investor Inputs (REC)
Per-Year Valuation — Today vs Forecast
Voluntary: REC (Med-Low)
Voluntary: EEC / Removal (Med-High)
Compliance: EU ETS
REC Projects & SDG Synergies
- SDG 7: More renewables displacing fossil power.
- SDG 13: Verified reductions, market signal for clean power.
- SDG 11: Cleaner air & resilient grids.
EEC Assumptions
Financial Projections
Investor Inputs (EEC)
Per-Year Valuation — Today vs Forecast
Voluntary: EEC / Removal (Med-High)
Compliance: EU ETS
EEC Projects & SDG Synergies
- SDG 9: Industrial modernisation, AI/dMRV.
- SDG 12: Resource efficiency & demand-side abatement.
- SDG 7: "First fuel" energy efficiency.
CCUS Assumptions VM0049 · Industrial CCS
Pricing: bilateral offtake $30–80/t · 45Q floor $60–85/t (US) · no liquid spot market
Financial Projections
Investor Inputs (CCUS)
Per-Year Valuation — Today vs Forecast
CCUS / Industrial CCS (VM0049)
Compliance: EU ETS
CCUS Projects & SDG Synergies
- SDG 9: Industrial innovation — point-source capture at cement, steel, refining facilities.
- SDG 13: Hard-to-abate sector decarbonisation; permanent geological storage.
- SDG 11: Cleaner industrial zones, reduced local air pollutants alongside CO₂.
VM0049 (Verra, June 2024): modular CCS methodology covering geological storage, CO₂ utilisation, and transport pathways. 45Q tax credit provides a $60–85/t USD policy floor in the US.
EV Fleet Assumptions VM0038 · Transport Electrification
Pricing: $2–5/t spot VCM · $6–10/t premium bilateral · CORSIA-eligible · 46.4% CAGR sector
Financial Projections
Investor Inputs (EV Fleet)
Per-Year Valuation — Today vs Forecast
EV Fleet Credits (VM0038)
Voluntary: REC (Med-Low)
EV Fleet Projects & SDG Synergies
- SDG 7: Clean transport powered by renewable electricity.
- SDG 11: Sustainable cities — reduced urban air pollution, quieter streets.
- SDG 13: Transport decarbonisation; CORSIA-aligned fleet credits.
VM0038 (Verra): telematics-verified VKT reduction, smart charging, baseline grid displacement. Transport credits are the fastest-growing VCM segment (46.4% CAGR). DePIN sensor networks add verifiability premium.
Feeds & Endpoints
Primary endpoint: /wp-json/tenza/v1/prices (Auto tries relative; falls back to https://tenza.one/wp-json/tenza/v1/prices).
Project data: /wp-json/wp/v2/tenza_project (loads meta: emissions, funding, scores, stage, tech type).
Venues: ICE (EUA), CME (GEO / N-GEO), EEX (GO); I-REC registry (regional indications); EEC modeled.
FX: ECB euro reference (cached daily).
Methodology
Forecast outlook: Conservative/Base/Optimistic scale the 2035 multiplier path and apply a sale-realisation haircut; small discount-rate nudge reflects risk.
REC pricing: V-REC/GO/I-REC converted to selected units (MWh or tCO₂e-eq via EF) and currency; tier factor applies to REC/EEC classes.
Financials: All internal calculations in the selected currency. Annual net flow = (credit revenue × (1−haircut) + optional savings) − O&M. KPIs: IRR (Newton-Raphson), NPV and discounted payback at your rate.
Currency handling: Capex, O&M and savings are all in the selected currency. Credit prices are converted from their native currency via ECB rates.
Standards & Registries
Primary standards: Verra (VCS) & Gold Standard. Tool is Verra-first but surfaces Gold Standard context where relevant.
Market intel: See AlliedOffsets (market/registry analytics) and Gold Standard Dashboard for reference data and methodologies.
Demo Data
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Status Updates
MAJOR MILESTONE ACHIEVED: Solar Thermal System Successfully Commissioned
Posted: July 30, 2025
We're excited to announce a significant breakthrough in our industrial decarbonisation journey! The Solar Thermal Project at SSSL Eluru has been successfully commissioned and is now entering its comprehensive testing phase.
Latest Developments:
System Performance Exceeds Expectations
Our 48-collector solar thermal system has demonstrated remarkable performance, consistently reaching 100+ degrees Celsius even during challenging cloudy conditions. This early success validates our advanced solar thermal technology and its reliability for industrial applications.
Testing Phase Underway
The system is now undergoing rigorous 5-6 month testing protocols through November 2025. Our collaborative monitoring approach with SSSL ensures comprehensive data collection and performance validation.
Immediate Targets (August-September 2025):
8-15 kL/day average hot water output
Consistent 125°C temperature delivery
Continuous performance monitoring and optimization
Upcoming Milestones (October-December 2025):
Scale up to 30-50 kL/day average output
Extended performance validation
Carbon credit methodology preparation
Strategic Next Steps:
We're advancing discussions for long-term Operations & Maintenance partnerships while initiating carbon credit studies with SSSL, Coca-Cola India, and global teams. These initiatives position the project as a model for industrial sustainability and emission reduction.
Partnership Impact:
This project represents more than just renewable energy adoption—it's a strategic partnership creating pathways for carbon offset initiatives and Scope 1 emission reduction across the industrial sector.
Stay tuned for monthly performance updates and milestone achievements as we continue this groundbreaking journey in industrial decarbonisation.
FAQ
Q: What is the primary purpose of this solar thermal system?
A: The system generates hot water at 125°C for the CIP (Clean-in-Place) process at the SSSL facility, replacing traditional fossil fuel-based heating methods and reducing industrial carbon emissions.
Q: How much hot water can the system produce?
A: Currently in testing phase, the system produces 8-15 kL/day on average, with targets to scale up to 30-50 kL/day during October-December 2025 testing phases.
Q: What happens during cloudy weather?
A: The system has proven resilient, achieving 100+ degrees Celsius even on cloudy days, demonstrating consistent performance regardless of weather conditions.
Q: How long is the testing period?
A: The system undergoes rigorous testing for 5-6 months (July-November 2025) with continuous monitoring by both Climatenza and SSSL teams.
Q: What are the carbon credit opportunities?
A: The project creates strategic opportunities for carbon offset initiatives through validated solar process heat methodology, contributing to Scope 1 emission reduction for participating companies.
Q: Who handles maintenance after installation?
A: Climatenza retains rights for Operations & Maintenance (O&M) of the solar field, including cloud/data infrastructure, solar collector operations, and maintenance activities.
Q: What is the temperature target for the system?
A: The system targets 125°C hot water generation, which is then integrated to deliver process heat at 85°C for the CIP applications.
Q: How is the system integrated with existing infrastructure?
A: The Solar Central is integrated with the solar field on one side and connected in series with SSSL's existing heat exchanger to seamlessly transfer solar-generated heat to the CIP process.
VCS Readiness Assessment
Summary
The project demonstrates comprehensive technical documentation and a clear monitoring approach, with well-defined stakeholder and developer information. However, critical gaps exist in baseline data, emission reductions, safeguards, and stakeholder engagement, limiting VCS readiness at this stage.
Scores
Checklist
Section 1: Project Details 45%
| Item | Status | PDD | Notes |
|---|---|---|---|
| Physical Location | ● | 1.5 | Evidence is weak or non-specific. |
| Other Entities | ✗ | 1.9 | Evidence is missing. |
| Project Capacity (MW, etc) | ✗ | 1.3 | Evidence is missing. |
| Sectoral Scope(s) | ✗ | 1.4 | Evidence is missing. |
| Project Scale (Small/Large) | ● | 1.3 | Evidence is weak or non-specific. |
| Estimated GHG Reductions | ✗ | 1.7 | Evidence is missing. |
| Crediting Period Duration | ✗ | 1.12 | Evidence is missing. |
| Crediting Period Type | ✗ | 1.12 | Evidence is missing. |
| Other Certifications | ✗ | 1.16 | Evidence is missing. |
| Participation in Other GHG Programs | ✗ | 1.17 | Evidence is missing. |
Section 2: Safeguards & Stakeholder Engagement 0%
| Item | Status | PDD | Notes |
|---|---|---|---|
| Stakeholder Consultation Process | ✗ | 2.1 | Evidence is missing. |
| Stakeholder Feedback Summary | ✗ | 2.1 | Evidence is missing. |
| Grievance Redress Mechanism | ✗ | 2.2 | Evidence is missing. |
| Sustainable Development Goals Impact | ✗ | 1.18 | Evidence is missing. |
| Social & Environmental Risk Assessments | ✗ | 2.4 | Evidence is missing. |
| Risk Mitigation Measures | ✗ | 2.4 | Evidence is missing. |
| No Net Harm Assessment | ✗ | 2.4 | Evidence is missing. |
| Respect for Human Rights & Equity | ✗ | 2.4 | Evidence is missing. |
| Worker and Labour Rights | ✗ | 2.4 | Evidence is missing. |
| Free, Prior, Informed Consent (FPIC) | ✗ | 2.4 | Evidence is missing. |
| Community Health and Safety | ✗ | 2.4 | Evidence is missing. |
| Cultural Heritage Protection | ✗ | 2.4 | Evidence is missing. |
| Gender Equality Considerations | ✗ | 2.4 | Evidence is missing. |
| Indigenous Peoples Rights | ✗ | 2.4 | Evidence is missing. |
| Biodiversity Impact | ✗ | 2.4 | Evidence is missing. |
| Water Resource Impact | ✗ | 2.4 | Evidence is missing. |
Section 3: Methodology Application 7%
| Item | Status | PDD | Notes |
|---|---|---|---|
| Applicable VCS Methodology | ● | 3.1 | Evidence is weak or non-specific. |
| Methodology Version | ✗ | 3.1 | Evidence is missing. |
| Methodology Applicability Check | ✗ | 3.2 | Evidence is missing. |
| Project Boundary Definition | ✗ | 3.3 | Evidence is missing. |
| Baseline Scenario Description | ● | 3.4 | Evidence is weak or non-specific. |
| Baseline Scenario Determination | ✗ | 3.4 | Evidence is missing. |
| Additionality Demonstration Summary | ✗ | 3.5 | Evidence is missing. |
| Regulatory Surplus | ✗ | 3.5.1 | Evidence is missing. |
| Additionality Justification Type | ✗ | 3.5.2 | Evidence is missing. |
| Investment Barriers | ✗ | 3.5.2 | Evidence is missing. |
| Technological Barriers | ✗ | 3.5.2 | Evidence is missing. |
| Common Practice Analysis | ✗ | 3.5.2 | Evidence is missing. |
| CAPEX | ✗ | 3.5.2 | Evidence is missing. |
| IRR without Carbon Revenue | ✗ | 3.5.2 | Evidence is missing. |
| IRR with Carbon Revenue | ✗ | 3.5.2 | Evidence is missing. |
| Payback Period | ✗ | 3.5.2 | Evidence is missing. |
| LCOH/LCOE | ✗ | 3.5.2 | Evidence is missing. |
| Sensitivity Analysis | ✗ | 3.5.2 | Evidence is missing. |
Section 4: GHG Quantification 17%
| Item | Status | PDD | Notes |
|---|---|---|---|
| Baseline Emissions (tCO2e/yr) | ✗ | 4.2 | Evidence is weak or non-specific. |
| Baseline Emissions Approach | ✗ | 4.2 | Evidence is weak or non-specific. |
| Project Emissions (tCO2e/yr) | ✗ | 4.3 | Evidence is weak or non-specific. |
| Project Emissions Approach | ✗ | 4.3 | Evidence is weak or non-specific. |
| Leakage Emissions (tCO2e/yr) | ✗ | 4.4 | Evidence is weak or non-specific. |
| Leakage Assessment | ✗ | 4.4 | Evidence is weak or non-specific. |
| Net GHG Emission Reductions | ✗ | 4.5 | Evidence is weak or non-specific. |
| Emission Factors & Data Sources | ✗ | 4.2 | Evidence is weak or non-specific. |
| Calculation Spreadsheet/Tool | ✗ | 4.1 | Evidence is weak or non-specific. |
| Uncertainty Assessment | ✗ | 4.6 | Evidence is missing. |
| Ex-Ante Data Parameters | ✗ | Table in 4.2/4.3 | Evidence is missing. |
| Ex-Post Monitored Parameters | ✗ | Table in 5.1 | Evidence is missing. |
| GWP Values Source | ✗ | 4.1 | Evidence is missing. |
Section 5: Monitoring Plan 33%
| Item | Status | PDD | Notes |
|---|---|---|---|
| Monitoring Parameters List | ● | 5.1 | Evidence is weak or non-specific. |
| Monitoring Equipment List | ✗ | 5.1 | Evidence is weak or non-specific. |
| Equipment Tags (e.g., TT-101) | ✗ | 5.1 | Evidence is missing. |
| Equipment Accuracy | ✗ | 5.1 | Evidence is missing. |
| Monitoring Frequency | ● | 5.1 | Evidence is weak or non-specific. |
| QA/QC Procedures | ✗ | 5.2 | Evidence is missing. |
| Calibration Procedures & Frequency | ✗ | 5.2 | Evidence is missing. |
| Data Management System (DCS/SCADA) | ✗ | 5.3 | Evidence is weak or non-specific. |
| Record-Keeping & Archiving | ✗ | 5.3 | Evidence is missing. |
| Emergency Procedures | ✗ | 5.5 | Evidence is missing. |
Methodology
- VCS Methodology
- AMS-II.C
- Version
- v15.0
- Project Type
- Solar thermal energy generation
- Capacity
- not found
- Baseline Scenario
- Current system involves solar collectors generating hot water at 125°C for CIP process, with no explicit baseline scenario described
Ghg
Monitoring
The monitoring approach involves continuous data collection via integrated control systems, with joint testing and verification during the initial months to ensure accurate measurement of solar thermal output and process parameters.
Action Plan
- Provide complete project location details including coordinates, address, and facility name
- Collect and document information for Other Entities
- Collect and document information for Project Capacity (MW, etc)
- Identify applicable VCS sectoral scope(s) from the official VCS Sectoral Scope list
- Strengthen documentation for Project Scale (Small/Large) with more specific details