75 kWp Mueang Nakhon Pathom, Nakhon Pathom, Thailand
$45.00 Per Carbon Credit
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OVERVIEW
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Suwanna Minracha is the agrisolar farm project originator for this 75 kWp agrisolar farm. We look forward to helping her implement a new agricultural business model by incorporating solar energy as an additional revenue stream.
Total Farm Area
- 10,867 Sq Meters
- 2.68 rai
- .1087 Hectares
- 116,971 square feet
- 2.6853 Acres
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CROP ANALYSIS
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AgrisolarAI Prompt: In Thailand at the following coordinates 13.877965, 100.024717 there is a small farm that grows cabbage on 921.46 m² (9,918.53 ft²) farm plot. Tell me everything you know about the possible crop yield; When is perfect time to plant? Ideal row spacing and cabbage spacing? how long is the grow cycle? how many harvests can be cultivated in 12 months. how tall does cabbage get? how many cabbage in one harvest cycle? how many kilograms does one harvest yield? What typically can a thai farmer sell wholesale for their cabbage at the local market? add as much detail as possible.
AgrisolarAI Prompt: Please calculate the total possible annual revenue generated from this cabbage plot of land. Provide me with lowest, middle and highest case scenario. Provide the calculations step by step in Baht as well as USD.
Private and legal binding contract between the solar energy producer and the energy purchased referred as “the off-taker”; usually a business or utility company.
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SOCIAL IMPACT
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CARBON REPORT
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Based on the IEA 2020 report, the average CO2 emissions intensity for electricity generation in Thailand is approximately 0.55 kg CO2 per kWh. Here’s how you would use that number to calculate the CO2 offset from this Agrisolar farm: Determine the annual production of the solar farm. For this project it is ~102,918.7 kWh. Multiply the annual production by the emissions factor. This will give the total CO2 emissions that would have been produced if that same amount of electricity had been generated by the conventional grid. 102,918.7 kWh * 0.55 kg CO2/kWh = 56,605.28 kg CO2 Convert the emissions to metric tons. There are 1000 kg in a metric ton (or tonne), so: 56,605.28 kg CO2 / 1000 = 56.61 metric tons CO2 So, in the first year, this agrisolar farm would offset approximately 56.61 metric tons of CO2 emissions compared to conventional grid electricity in Thailand.
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SOLAR ENERGY
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We use AgrisolarAI to drill down into the project solar energy system specifications. Project GPS Location: 13.877838, 100.025089 Project Physical Location: Thap Luang, Mueang Nakhon Pathom District, Nakhon Pathom, Thailand Field Segment: 18,610.1 ft2 Frame Size: 1 up, 1 wide Mounting Height: 12 ft Mounting Row Spacing: 12 ft Mounting Frame Spacing: 3 ft Azimuth: 0 degrees (South) Solar Module Power Rating: 600 Watt Solar Module Model: Trina Solar Vertex 600W, Model TSM-DEG20C.20 Inverter Manufacturer: Huawei Inverter Type: String Inverter Inverter Model: Huawei SUN2000-20KTL-M0 Inverter number: 3 Annual Production to grid kWhrs: 102,918.7 Annual Revenue from Solar Electricity Sale to local utility = 102,918.7 kWh x $0.07 / kWh = $7,204.30 Agrisolar Farm Installed Cost Target = $1.00/watt
Solar Energy Production (year 1) = 102,918.7 kWh 1 Carbon Credit = 1 MTCO2e 1 MTCO2e = 1,818.61 kWh 1 Day (24 hours) = 281.969041kWh 1 Hour = 11.74871 kWh 1 Minute = 0.19581183 kWh 1 MTCO2e = 154.86785445 hours or 6.452 days Year 1 carbon credits = 56 25 years carbon credits = ~ 1,400
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ENERGY STORAGE
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SOLAR REFRIGERATION
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CONTAINER FARM
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Container Farm
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SOLAR IRRIGATION
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BIOCHAR SOIL
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19,602.31 m² 210997.51 sq ft 4.84 acres 12.25 rai
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PRECISION FARMING
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PROJECT FINANCE
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ECONOMICS
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Cost Categories Target Cost ($/watt) Actual Cost ($/watt) Cost Description Hard Costs n/a n/a Major cost category: These are the direct costs related to the physical components of the solar installation Module Cost 0.17 This is the cost of the photovoltaic panels Inverter Cost 0.23 This is the cost of the inverter, which converts the direct current (DC) produced by the solar panels into alternating current (AC) for use in the building or to be fed into the grid. Racking and Mounting Systems 0.15 This includes the costs of the racking systems and other physical components necessary to mount the panels Balance of System Hardware This refers to additional hardware not included in the other categories that are necessary for a functioning PV system. Electrical BOS This includes the cost of wiring, fuses, switches, and other electrical components. Mechanical BOS Includes costs for additional mechanical hardware, such as fasteners, clips, and other components used in the physical installation of the PV system. Power Electronics DC-DC Converters: Microinverters: Power Optimizers: Battery Management Systems (BMS): Charge Controllers: Grid-Tie Inverters: Data Loggers and Monitoring Systems. Energy Storage Hardware If the system includes energy storage, this would include the cost of the batteries and any associated hardware. The cost can vary significantly depending on the type of battery technology used and the size of the battery system. Soft Costs Project Origination Costs Project Development Costs Preliminary Feasibility and Viability Studies Detailed Project Reports Site Surveys and Soil Testing Environmental Impact Assessment Power Purchase Agreement Procedures Grid Connection Approval Legal Fees and Other Professional Services Project Management Costs PII Costs Permitting Costs Insurance Costs Interconnection Costs Installation Labor Installer Profit Developer Profit Indirect Corporate Costs Supply Chain Costs Land Acquisition Costs Grid Integration and Access Costs Operations and Maintenance Costs Regulatory Compliance Costs Financing and Contracting -
dMRV AUDIT TRAIL
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June 1, 2024Agrisolar Farm Project Initial Application Submitted
Application submitted to Issuer.
KYC, ID Verrification, AML Check.
Issued by registrant_98dd0097-1a5c-4a11-8055-e7dcebb5c950June 3, 2024Initial Application ReviewAGRISOLAR project initial application processed.
Issued by agrsiolarauthority_d8a6f7b2-5e3b-4c9d-9f9d-1a9d3d8c5b7d
June 8, 2024Solar Energy Project RegistrationEcological Project registration request submitted to Issuer.
Issued by registrant_b6f1d1a5-7c4e-4d2d-9d3c-6d9f7a9d9d7bJune 10, 2024Solar Energy Management System RegistrationDocumentation Request
Registrants submitted energy recordings from the energy management system. Documentation to Issuer.Issued by registrant_d8a6f7b2-5e3b-4c9d-9f9d-1a9d3d8c5b7d
June15, 2024Solar Energy Management System ReviewSolar Energy Management System Rewiew request processed. Inverter and solar energy generation ready to be recorded on the blockchain in real time with verrification by public.
Issued by agrsiolarauthority f8c7e6d5-4b3a-2c1d-1e2f-3g4h5i6j7k8lJune 20, 2024Solar Energy kWh Recorded on a Blockchaina1b2c3d4-e5f6-g7h8-i9j0-k1l2m3n4o5p
June 27, 2024Solar Energy Carbon Credit Offset Token1 Token[s] minted.
Issued by agrsiolarauthority
Click here: q1r2s3t4-u5v6w7x8-y9z0a1b2c3d4e5f61 Carbon Credit = 1 MTCO2e
1 MTCO2e = 1,818.61 kWh
1 Day (24 hours) = 281.969041kWh
1 Hour = 11.74871 kWh
1 Minute = 0.19581183 kWh1 Carbon Credit will be minted every 154.86785445 hours or 6.452 days
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DOCUMENTS
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Suwanna Minracha is the agrisolar farm project originator for this 75 kWp agrisolar farm. We look forward to helping her implement a new agricultural business model by incorporating solar energy as an additional revenue stream.
Total Farm Area
- 10,867 Sq Meters
- 2.68 rai
- .1087 Hectares
- 116,971 square feet
- 2.6853 Acres
AgrisolarAI Prompt: In Thailand at the following coordinates 13.877965, 100.024717 there is a small farm that grows cabbage on 921.46 m² (9,918.53 ft²) farm plot. Tell me everything you know about the possible crop yield; When is perfect time to plant? Ideal row spacing and cabbage spacing? how long is the grow cycle? how many harvests can be cultivated in 12 months. how tall does cabbage get? how many cabbage in one harvest cycle? how many kilograms does one harvest yield? What typically can a thai farmer sell wholesale for their cabbage at the local market? add as much detail as possible.
AgrisolarAI Prompt: Please calculate the total possible annual revenue generated from this cabbage plot of land. Provide me with lowest, middle and highest case scenario. Provide the calculations step by step in Baht as well as USD.
Private and legal binding contract between the solar energy producer and the energy purchased referred as “the off-taker”; usually a business or utility company.
Based on the IEA 2020 report, the average CO2 emissions intensity for electricity generation in Thailand is approximately 0.55 kg CO2 per kWh. Here’s how you would use that number to calculate the CO2 offset from this Agrisolar farm: Determine the annual production of the solar farm. For this project it is ~102,918.7 kWh. Multiply the annual production by the emissions factor. This will give the total CO2 emissions that would have been produced if that same amount of electricity had been generated by the conventional grid. 102,918.7 kWh * 0.55 kg CO2/kWh = 56,605.28 kg CO2 Convert the emissions to metric tons. There are 1000 kg in a metric ton (or tonne), so: 56,605.28 kg CO2 / 1000 = 56.61 metric tons CO2 So, in the first year, this agrisolar farm would offset approximately 56.61 metric tons of CO2 emissions compared to conventional grid electricity in Thailand.
We use AgrisolarAI to drill down into the project solar energy system specifications. Project GPS Location: 13.877838, 100.025089 Project Physical Location: Thap Luang, Mueang Nakhon Pathom District, Nakhon Pathom, Thailand Field Segment: 18,610.1 ft2 Frame Size: 1 up, 1 wide Mounting Height: 12 ft Mounting Row Spacing: 12 ft Mounting Frame Spacing: 3 ft Azimuth: 0 degrees (South) Solar Module Power Rating: 600 Watt Solar Module Model: Trina Solar Vertex 600W, Model TSM-DEG20C.20 Inverter Manufacturer: Huawei Inverter Type: String Inverter Inverter Model: Huawei SUN2000-20KTL-M0 Inverter number: 3 Annual Production to grid kWhrs: 102,918.7 Annual Revenue from Solar Electricity Sale to local utility = 102,918.7 kWh x $0.07 / kWh = $7,204.30 Agrisolar Farm Installed Cost Target = $1.00/watt
Solar Energy Production (year 1) = 102,918.7 kWh 1 Carbon Credit = 1 MTCO2e 1 MTCO2e = 1,818.61 kWh 1 Day (24 hours) = 281.969041kWh 1 Hour = 11.74871 kWh 1 Minute = 0.19581183 kWh 1 MTCO2e = 154.86785445 hours or 6.452 days Year 1 carbon credits = 56 25 years carbon credits = ~ 1,400
Container Farm
19,602.31 m² 210997.51 sq ft 4.84 acres 12.25 rai
Cost Categories Target Cost ($/watt) Actual Cost ($/watt) Cost Description
Hard Costs n/a n/a Major cost category: These are the direct costs related to the physical components of the solar installation
Module Cost 0.17 This is the cost of the photovoltaic panels
Inverter Cost 0.23 This is the cost of the inverter, which converts the direct current (DC) produced by the solar panels into alternating current (AC) for use in the building or to be fed into the grid.
Racking and Mounting Systems 0.15 This includes the costs of the racking systems and other physical components necessary to mount the panels
Balance of System Hardware This refers to additional hardware not included in the other categories that are necessary for a functioning PV system.
Electrical BOS This includes the cost of wiring, fuses, switches, and other electrical components.
Mechanical BOS Includes costs for additional mechanical hardware, such as fasteners, clips, and other components used in the physical installation of the PV system.
Power Electronics DC-DC Converters: Microinverters: Power Optimizers: Battery Management Systems (BMS): Charge Controllers: Grid-Tie Inverters: Data Loggers and Monitoring Systems.
Energy Storage Hardware If the system includes energy storage, this would include the cost of the batteries and any associated hardware. The cost can vary significantly depending on the type of battery technology used and the size of the battery system.
Soft Costs
Project Origination Costs
Project Development Costs
Preliminary Feasibility and Viability Studies
Detailed Project Reports
Site Surveys and Soil Testing
Environmental Impact Assessment
Power Purchase Agreement Procedures
Grid Connection Approval
Legal Fees and Other Professional Services
Project Management Costs
PII Costs
Permitting Costs
Insurance Costs
Interconnection Costs
Installation Labor
Installer Profit
Developer Profit
Indirect Corporate Costs
Supply Chain Costs
Land Acquisition Costs
Grid Integration and Access Costs
Operations and Maintenance Costs
Regulatory Compliance Costs
Financing and Contracting
June 1, 2024
Agrisolar Farm Project Initial Application Submitted
Application submitted to Issuer.
KYC, ID Verrification, AML Check.
Issued by registrant_98dd0097-1a5c-4a11-8055-e7dcebb5c950
June 3, 2024
Initial Application Review
AGRISOLAR project initial application processed.
Issued by agrsiolarauthority_d8a6f7b2-5e3b-4c9d-9f9d-1a9d3d8c5b7d
June 8, 2024
Solar Energy Project Registration
Ecological Project registration request submitted to Issuer.
Issued by registrant_b6f1d1a5-7c4e-4d2d-9d3c-6d9f7a9d9d7b
June 10, 2024
Solar Energy Management System Registration
Documentation Request
Registrants submitted energy recordings from the energy management system. Documentation to Issuer.
Issued by registrant_d8a6f7b2-5e3b-4c9d-9f9d-1a9d3d8c5b7d
June15, 2024
Solar Energy Management System Review
Solar Energy Management System Rewiew request processed. Inverter and solar energy generation ready to be recorded on the blockchain in real time with verrification by public.
Issued by agrsiolarauthority f8c7e6d5-4b3a-2c1d-1e2f-3g4h5i6j7k8l
June 20, 2024
Solar Energy kWh Recorded on a Blockchain
a1b2c3d4-e5f6-g7h8-i9j0-k1l2m3n4o5p
June 27, 2024
Solar Energy Carbon Credit Offset Token
1 Token[s] minted.
Issued by agrsiolarauthority
Click here: q1r2s3t4-u5v6w7x8-y9z0a1b2c3d4e5f6
1 Carbon Credit = 1 MTCO2e
1 MTCO2e = 1,818.61 kWh
1 Day (24 hours) = 281.969041kWh
1 Hour = 11.74871 kWh
1 Minute = 0.19581183 kWh
1 Carbon Credit will be minted every 154.86785445 hours or 6.452 days
Phase I - 75 kWp Solar Energy System