Solar Engineering Partnership
Budget: $30 – $250 USD
Our 6 MW beta build in Florida is entering detailed design and we want one seasoned solar engineer to own the technical package from now through commissioning—then roll straight into our 500-acre Arizona expansion and a third much larger site in Texas. The immediate mandate is to transform a raw parcel into a shovel-ready plan that blends conventional ground-mount PV, utility-scale BESS, and modular blockchain data-center blocks, all installed by solar PV robots and tied into our proprietary software stack.
There are three core work-streams: creating a civil/electrical site plan that aligns setbacks, cabling, and drainage with Trinabot installation paths; running solar resource and energy-yield simulations to validate a 6 MW AC design; and producing a bankable BESS integration study—the component that will demand the deepest engineering rigor. Expect to model charge/discharge profiles, sizing, and interconnection so the battery asset maximizes arbitrage and regulation services in Florida’s market.
Deliverables we need before field operations begin in October:
• Issued-for-construction (IFC) site plan in CAD/PDF with layout, ground-mount racking details, inverter pads, data-center placements, trenching, and conduit schedules.
• Solar resource report (PVsyst or equivalent) covering annual yield, shade analysis, and performance ratio assumptions.
• BESS engineering dossier: sizing calculations, single-line diagrams, control strategy, and compliance with NFPA 855, NEC 706, and local AHJ requirements.
We''ll review each package against interconnection specs (not required for beta as beta is off-grid) and EPC milestones; sign-off signals readiness for procurement and Trinabot programming. After we energize the beta site, we shift the same workflow—scaled up—to Arizona in January.
Proficiency in AutoCAD, Civil 3D, PVsyst/HelioScope, and battery modeling tools is essential, as is the flexibility to collaborate with my internal software team on API hooks for real-time monitoring. If you thrive on iterative design, can travel to each site during critical surveys (or provide a truly on-call video presence from afar), and want a multi-year runway of utility-scale solar-plus-storage projects, let’s get going in early September.
There are three core work-streams: creating a civil/electrical site plan that aligns setbacks, cabling, and drainage with Trinabot installation paths; running solar resource and energy-yield simulations to validate a 6 MW AC design; and producing a bankable BESS integration study—the component that will demand the deepest engineering rigor. Expect to model charge/discharge profiles, sizing, and interconnection so the battery asset maximizes arbitrage and regulation services in Florida’s market.
Deliverables we need before field operations begin in October:
• Issued-for-construction (IFC) site plan in CAD/PDF with layout, ground-mount racking details, inverter pads, data-center placements, trenching, and conduit schedules.
• Solar resource report (PVsyst or equivalent) covering annual yield, shade analysis, and performance ratio assumptions.
• BESS engineering dossier: sizing calculations, single-line diagrams, control strategy, and compliance with NFPA 855, NEC 706, and local AHJ requirements.
We''ll review each package against interconnection specs (not required for beta as beta is off-grid) and EPC milestones; sign-off signals readiness for procurement and Trinabot programming. After we energize the beta site, we shift the same workflow—scaled up—to Arizona in January.
Proficiency in AutoCAD, Civil 3D, PVsyst/HelioScope, and battery modeling tools is essential, as is the flexibility to collaborate with my internal software team on API hooks for real-time monitoring. If you thrive on iterative design, can travel to each site during critical surveys (or provide a truly on-call video presence from afar), and want a multi-year runway of utility-scale solar-plus-storage projects, let’s get going in early September.