Comprehensive Utility Holding Company, Electric Generation, Distribution, Storage, Renewable Energy and Infrastructure Development Proposal Prepared by: Fiveo1 Representative Evan Winter, District 69 - California Mailing Address: Fiveo1, P.O. Box 312786, Avalon, California 90704 Date: November 1, 2026 Project Location: Avalon, Santa Catalina Island, Los Angeles County, California 90704 Proposed Structure: Fiveo1 Holding Company with Seven Specialized Utility Operating Companies Project Classification: Preliminary infrastructure development, utility modernization, energy independence and public-private partnership proposal Plan Horizon: 2026-2036 Status: Proposed, subject to engineering, feasibility studies, financing, regulatory approvals, land rights and utility agreements. SECTION 1. EXECUTIVE SUMMARY Fiveo1 proposes an integrated electric-power infrastructure system serving Avalon and the broader Santa Catalina Island electrical service area. The objective is a financially sustainable, reliable, environmentally responsible and technologically advanced electricity system that reduces dependence on transported liquid fuels, increases local renewable generation, incorporates large-scale battery storage, modernizes electrical distribution, improves emergency resilience and provides long-term price stability. The project is organized through a Fiveo1 holding-company structure and seven specialized utility operating companies covering: electric generation; renewable energy; battery storage; electrical transmission and distribution; water and wastewater utility energy infrastructure; energy management and grid technology; and utility infrastructure, maintenance and emergency services. The holding company coordinates investment, financing, ownership, procurement, engineering, construction, regulatory compliance and long-term asset management. The proposal does not assume that Fiveo1 can immediately replace Southern California Edison (SCE), acquire its existing infrastructure, establish independent retail electricity service or take over regulated utility operations. The initial strategy is to work within the existing electrical system, develop independently financeable generation and storage projects, establish contractual relationships with the incumbent utility, and pursue appropriate regulatory approvals for expanded operations. The principal objective is a resilient island electrical system capable of maintaining essential services during equipment failures, fuel disruptions, severe weather, transportation interruptions and other emergencies. SECTION 2. EXISTING ELECTRICITY INFRASTRUCTURE AND OPERATING CONDITIONS 2.1 Existing electricity provider The established electricity provider for Catalina Island is Southern California Edison. SCE provides electricity, water and gas utility services to the island. The electricity system is centered on the Pebbly Beach Generating Station, approximately one mile southeast of Avalon. The island operates as an isolated electrical system. It is not connected to the mainland grid and cannot draw electricity from the California Independent System Operator (CAISO) network. Catalina must maintain sufficient local generation, storage, reserves and distribution capability to supply its own demand. The system serves Avalon, Two Harbors, Hamilton Cove, airport facilities, interior island properties, commercial and industrial customers, residential customers, and public infrastructure and essential services. SCE reports approximately 4,100 permanent residents and more than one million annual visitors. 2.2 Existing generating infrastructure The historical NREL engineering inventory identified the following Pebbly Beach equipment: Six diesel generators: 9.4 MW Twenty-three propane microturbines: 1.5 MW Sodium-sulfur battery: 1 MW discharge rating, 7.2 MWh energy capacity Total historical generation nameplate: 10.9 MW Total including battery discharge rating: 11.9 MW These figures describe the historical equipment inventory, not a verified November 2026 operating inventory. SCE's Catalina Repower Project reports that three of six older generating units are being replaced with EPA Tier 4-compliant equipment; renewable diesel was introduced in 2024; SCE reports a 98 percent reduction in anthropogenic greenhouse-gas emissions from generator operations following the fuel transition; the applicable SCAQMD Rule 1135 emissions limits include 45 tons annually by 2027 and 30 tons annually by 2028; and SCE continues to evaluate solar generation, battery storage and cleaner generation technologies. Fiveo1 must obtain current operating records, generator availability, fuel consumption, actual peak demand, battery condition and maintenance schedules directly from SCE before final engineering. 2.3 Electrical demand The NREL feasibility study documented historical island consumption of approximately 29 GWh annually, with approximate peak demand of 5.5 MW and minimum demand of 0.9 MW. The NREL study also modeled an SCE-estimated future peak of 7 MW. These are historical planning benchmarks, not current metered 2026 demand. Fiveo1 will test both a 5.5 MW historical peak and a 7 MW growth-adjusted peak before selecting equipment ratings. Planning cases (Fiveo1 planning assumptions, not official forecasts): Historical reference: 29 GWh per year; 3.31 MW average continuous load Moderate growth: 32 GWh per year; 3.65 MW average continuous load Higher tourism/electrification: 36 GWh per year; 4.11 MW average continuous load Long-term expansion: 40 GWh per year; 4.57 MW average continuous load; 7.0 MW planning peak Final design must be based on at least 24 months of interval-meter data, seasonal load curves, customer classifications, actual generator dispatch and a forecast of electric vehicle, building, hotel, desalination and commercial demand. 2.4 Structural challenges 1. No mainland grid connection. 2. Dependence on fuel transported by marine vessels. 3. Limited land availability. 4. High environmental and land-use constraints. 5. High consequences associated with generation or distribution failures. 6. Seasonal changes in electricity demand. 7. Limited redundancy in critical infrastructure. 8. Exposure to severe weather, wildfire and transportation disruptions. 9. High costs associated with specialized equipment and island logistics. 10. Need to maintain voltage, frequency and spinning or equivalent operating reserves independently. The proposed solution addresses all ten without creating a second electrical system alongside the existing one. SECTION 3. HOLDING COMPANY STRUCTURE 3.1 Parent holding company Fiveo1 Energy Holdings, LLC is the proposed parent entity, subject to name availability, incorporation, tax review and legal structuring. It will own or control the operating subsidiaries and coordinate capital allocation, infrastructure ownership, financial reporting and corporate governance. The parent does not automatically function as an electric utility by owning energy infrastructure. Initial business activities: infrastructure investment; development management; project financing; engineering, procurement and construction coordination; asset ownership; technology licensing; commercial energy contracts; utility infrastructure development; operations oversight; environmental compliance; long-term infrastructure maintenance. 3.2 Seven operating companies 1. Fiveo1 Generation, LLC: electric generation, dispatchable capacity and backup power. 2. Fiveo1 Renewables, LLC: solar, renewable generation and distributed energy. 3. Fiveo1 Storage, LLC: battery storage, reserve capacity and grid balancing. 4. Fiveo1 Grid Infrastructure, LLC: transmission, distribution, substations and electrical assets. 5. Fiveo1 Water & Energy, LLC: water production, wastewater and utility energy integration. 6. Fiveo1 Grid Technology, LLC: controls, metering, forecasting and cybersecurity. 7. Fiveo1 Utility Services, LLC: maintenance, construction, emergency response and equipment logistics. Fiveo1 Shared Services Co. acts as a centralized administrative function providing accounting, human resources, IT/OT and legal services under CPUC-compliant affiliate cost-allocation rules. 3.3 Operating company responsibilities Utility 1, Fiveo1 Generation: develops, owns or contracts for permitted generating facilities. Infrastructure: dispatchable generation, emergency generation, renewable-fuel-compatible generation where technically and legally appropriate, generator controls, fuel storage and supply contracts, generator maintenance, black-start capability, reserve generation. Primary responsibility: dependable supply when solar and other intermittent generation are unavailable. Utility 2, Fiveo1 Renewables: renewable electricity production. Infrastructure: rooftop solar, commercial solar, parking and covered-structure solar, solar on eligible disturbed land, distributed generation, project development, solar inverters, generation monitoring. Priority: locations that avoid unnecessary disturbance of protected island habitat. Utility 3, Fiveo1 Storage: electricity storage and dispatch. Infrastructure: grid-scale lithium iron phosphate (LiFePO4) battery systems, battery management systems, inverters, thermal management, fire detection and suppression, battery control software, emergency reserve capacity, renewable integration. Primary functions: fast frequency response, voltage support, renewable energy shifting, peak reduction and fast response to sudden changes in demand and renewable output. Utility 4, Fiveo1 Grid Infrastructure: permitted electrical infrastructure development. Infrastructure: distribution substations, transformers, switchgear, underground distribution where justified, overhead conductor upgrades, protective relays, reclosers, circuit sectionalization, interconnection equipment. Existing SCE infrastructure remains under SCE ownership unless separately acquired or transferred through an authorized transaction. Utility 5, Fiveo1 Water & Energy: energy integration with water and wastewater infrastructure. Infrastructure: water-treatment energy systems, desalination power supply, pumping efficiency, wastewater treatment power systems, water storage pumping optimization, backup power for essential water infrastructure, energy recovery where feasible. Water utility ownership and operation remain subject to separate utility regulation and municipal agreements. Utility 6, Fiveo1 Grid Technology: intelligent system management. Infrastructure: Supervisory Control and Data Acquisition (SCADA), Energy Management Systems (EMS), advanced metering infrastructure (AMI), demand forecasting, predictive maintenance, cybersecurity, grid protection coordination, real-time energy dispatch, equipment monitoring. The company coordinates with the incumbent utility and operates only controls and assets for which it has authority. Utility 7, Fiveo1 Utility Services: physical maintenance and infrastructure support. Services: electrical maintenance, equipment inspection, generator servicing, battery servicing, emergency repair, construction management, marine freight coordination, spare-parts management, safety training, environmental monitoring, disaster recovery. 3.4 Corporate financial separation Each subsidiary maintains separate accounting, operating budgets, contracts, insurance, asset registers, liability records and performance reporting. The parent consolidates financial statements where required and does not use one regulated utility's customer revenue to subsidize unrelated Fiveo1 commercial businesses. Intercompany services are documented through written agreements at commercially supportable prices. No subsidiary guarantees another subsidiary's debt without documented financial and legal justification. Ring-fencing isolates regulated California assets from non-regulated commercial ventures and secondary regional projects, including Fiveo1 Baja Norte Electric and Fiveo1 Mexico Commercializadora. The structure permits phased development, project-specific financing and eventual partnerships with public agencies, institutional investors and infrastructure operators. SECTION 4. PROPOSED ELECTRICITY GENERATION SYSTEM 4.1 Generation strategy Fiveo1 will develop a diversified portfolio: solar photovoltaic generation; battery-supported renewable generation; dispatchable backup generation; renewable diesel or other approved lower-emission fuels during transition; future alternative fuels where commercially and technically justified; demand management and efficiency improvements. The system must meet peak demand when solar production is zero. The island retains sufficient dispatchable generation and operating reserves until an independently verified engineering study demonstrates they can safely be reduced. 4.2 Solar development targets Rooftop solar: 1-2 MWdc Commercial and institutional solar: 1-2 MWdc Solar parking structures: 0.5-1 MWdc Eligible disturbed-land installations (including the Middle Ranch area): 2-3 MWdc Total potential development: 4.5-8 MWdc These are proposed capacities, not confirmed available sites. First priority: existing rooftops, commercial structures, public facilities and previously developed surfaces. Site evaluation criteria: structural loading, roof condition, wind exposure, salt corrosion, fire protection, shading, electrical interconnection, property ownership, environmental restrictions, historic-preservation requirements. Development avoids unnecessary land clearing, protected habitat disturbance and areas with unacceptable wildfire or erosion exposure. 4.3 Solar production estimates Screening yield: 1,600-1,900 kWh per installed kWdc annually, subject to site-specific modeling, equipment losses, shading and curtailment. 1 MWdc: 1.6-1.9 GWh per year 2 MWdc: 3.2-3.8 GWh 4 MWdc: 6.4-7.6 GWh 6 MWdc: 9.6-11.4 GWh 8 MWdc: 12.8-15.2 GWh At 29 GWh annual consumption, 8 MWdc corresponds to approximately 44-52 percent of historical annual consumption on an energy-volume basis. This is not an hourly supply share; actual contribution depends on battery capacity, load timing, curtailment, grid stability and available sites. 4.4 Battery energy storage system (BESS) Planning range: discharge capacity 6-10 MW; energy capacity 24-40 MWh; nominal discharge duration 4 hours; technology lithium iron phosphate or an independently evaluated alternative; grid connection at 12 kV or approved interconnection; utility-coordinated energy management. Services: fast frequency response, voltage support, renewable energy shifting, peak-demand reduction, short-duration emergency electricity, generator start-up support, reserve capacity, reduction of unnecessary generator cycling, black-start support. A 10 MW / 40 MWh battery provides four hours at rated discharge power under nominal conditions, with usable energy depending on operating limits and efficiency. It does not independently provide multi-day supply. Long-duration resilience requires dispatchable generation, fuel reserves, load management and potentially additional storage technologies. 4.5 Dispatchable generation Dispatchable generation is retained alongside solar and batteries. Fiveo1 Generation will evaluate EPA Tier 4-compliant engines, renewable-diesel-compatible equipment, propane generation, other permitted lower-emission technologies, future renewable fuels, and generator redundancy and black-start arrangements. The existing SCE generation system remains the reference system until an authorized transition is completed. Fiveo1 will not purchase or install replacement generators before confirming actual island generation requirements, SCE's approved repowering program and SCAQMD Rule 1135 permits. 4.6 Undersea electricity cable alternative A submarine connection to the California mainland is a separate long-term alternative, not the initial project. Study requirements: marine route, water depth, seabed geology, cable burial and protection, marine protected areas, environmental effects, landing locations, mainland interconnection capacity, converter and substation requirements, fault repair logistics, financing, ownership and operating responsibility, and full lifecycle cost compared with continued local generation and renewable development. A cable would not eliminate the need for local backup generation and emergency storage. SECTION 5. DISTRIBUTION AND GRID MODERNIZATION 5.1 Existing distribution Historical engineering records identify three 12 kV distribution circuits: the Wrigley Line, the Interior Line and the Hi-Line. The historical system also includes the Pebbly Beach substation and Two Harbors switching infrastructure. Fiveo1 Grid Infrastructure will propose improvements in coordination with SCE. 5.2 Proposed modernization Replacement of deteriorated conductors; underground distribution where lifecycle and fire-risk analyses justify it; modern protective relays; automated circuit reclosers; sectionalizing switches; transformer upgrades; substation modernization; remote monitoring; voltage regulation; fault detection; improved grounding; lightning and surge protection; corrosion protection; redundant communications; emergency switching arrangements. Purpose: isolate electrical failures without disconnecting the entire island. 5.3 Critical electrical infrastructure priorities Hospitals and emergency medical facilities; fire protection; police and emergency communications; water treatment; wastewater treatment; emergency shelters; public safety communications; fuel and transportation infrastructure; essential government facilities; emergency food and refrigeration. Each critical facility receives an independently assessed emergency power arrangement. 5.4 Microgrid control A centralized energy management platform with distributed controls monitors demand, solar generation, battery state of charge, generator condition, fuel inventory, frequency, voltage, equipment temperatures, circuit loading, power quality, weather and emergency status. It supports safe islanding, automatic load shedding and controlled restoration. Control of SCE-owned generating or distribution equipment requires express SCE authorization. SECTION 6. WATER, WASTEWATER AND ELECTRICITY INTEGRATION Water production, desalination, pumping, treatment and wastewater management depend on electricity. Fiveo1 Water & Energy will develop an integrated efficiency and resilience program. 6.1 Proposed improvements High-efficiency pumping equipment; variable-frequency drives; energy-efficient water treatment; battery-supported essential pumping; backup power at critical water facilities; smart water storage management; demand-responsive pumping; leak detection; electrical consumption monitoring; emergency water-production power arrangements. 6.2 Desalination and renewable energy Desalination provides drinking water but consumes significant electricity and requires treatment, brine management, marine permitting and water-quality monitoring. Fiveo1 will assess operating desalination during periods of excess renewable generation. Water storage can act as limited flexible demand, with pumping shifted to periods of lower cost or abundant renewable production, provided pressure, storage capacity and public-health requirements are met. 6.3 Essential infrastructure priority Water treatment and wastewater operations receive priority in emergency electrical allocation. No optimization program may compromise drinking-water quality, sanitation or mandatory treatment requirements. SECTION 7. OPERATING AND REVENUE MODEL Commercial responsibilities: Fiveo1 Generation: authorized power purchase and generation contracts. Fiveo1 Renewables: power purchase agreements, authorized generation sales, site leases. Fiveo1 Storage: storage availability contracts and authorized grid-service agreements. Fiveo1 Grid Infrastructure: approved infrastructure agreements and asset-service contracts. Fiveo1 Water & Energy: water-infrastructure energy contracts and service agreements. Fiveo1 Grid Technology: software licensing, monitoring and technical service contracts. Fiveo1 Utility Services: construction, maintenance, emergency response and equipment-service contracts. Subsidiaries do not collect retail electricity charges from Avalon residents unless authorized under applicable utility law, CPUC approvals, franchises and approved tariffs. 7.1 Electricity procurement and Community Choice Aggregation (CCA) Under California law, a qualifying city or county establishes a CCA by ordinance. The CCA procures or generates electricity while the incumbent investor-owned utility continues to provide distribution, metering, billing and related services. Participating entities must satisfy requirements including resource adequacy, integrated resource planning and renewable portfolio standards. Catalina is an isolated system not electrically connected to the CAISO grid, so the conventional mainland CCA procurement model cannot be assumed to apply. Fiveo1 requires a formal CPUC and SCE determination before investing in any CCA structure. 7.2 Initial contractual structure SCE retains regulated retail service. Fiveo1 develops qualifying independent generation and storage projects. SCE evaluates and approves interconnections under Rule 21 and applicable FERC frameworks. Fiveo1 negotiates power purchase or infrastructure availability agreements where authorized. Public agencies participate in infrastructure and resilience agreements. Fiveo1 subsidiaries receive contractual payments for verified services. Customers retain existing lawful service arrangements. This avoids establishing a second retail utility before an approved legal and commercial foundation exists. SECTION 8. PRELIMINARY CAPITAL DEVELOPMENT BUDGET 8.1 Methodology Figures are preliminary 2026 U.S. dollar planning allowances, not contractor bids, engineering estimates, approved SCE project costs or guaranteed prices. Island construction cost factors: marine freight, specialized equipment transport, limited staging areas, labor availability, crane and heavy-equipment access, corrosion protection, environmental monitoring, permitting, scheduling, contingency, replacement parts, insurance. 8.2 Capital budget Solar generation, 4.5-8 MWdc: $12-24 million Battery storage, 24-40 MWh: $12-22 million Battery inverters and interconnection: $3-6 million Grid modernization and distribution hardening: $12-25 million Generation and emergency-power upgrades: $8-18 million Grid control and cybersecurity: $3-6 million Water and wastewater energy improvements: $3-7 million Engineering, environmental studies and permitting (including CEQA): $4-8 million Marine transport, logistics and construction mobilization: $3-7 million Land rights and site preparation: $2-5 million Development contingency: $8-15 million Total preliminary program: $70-143 million The generation allowance excludes purchase of SCE's existing generating station and major replacement of its entire fleet. The grid allowance excludes acquisition of the existing distribution network. Final costs may exceed the range after engineering, land, environmental and procurement review. 8.3 Initial authorization and Phase 1 budget (Months 0-18) Initial development authorization: $5-8.4 million. Electrical-system data collection and modeling: $500,000-$900,000 Solar and storage siting studies: $600,000-$1,100,000 Environmental, cultural, coastal and fire screening: $700,000-$1,300,000 Interconnection, protection and grid-stability studies: $600,000-$1,200,000 Legal, regulatory, land-use and utility-agreement counsel: $700,000-$1,300,000 Preliminary engineering and cost estimating: $800,000-$1,400,000 Financial modeling, market study and independent review: $300,000-$600,000 Community engagement and project management: $300,000-$600,000 Contingency: $500,000-$1,000,000 Stated total: $5.0-$8.4 million Arithmetic note: the listed line items sum to $5.0 million at the low end and $9.4 million at the high end; the stated high-end total of $8.4 million differs from that sum. Construction capital is released only after the corresponding investment approvals. Allowances are refined after SCE data access, site screening and regulatory consultations. 8.4 Funding principles Development equity; strategic infrastructure investors; project-level debt; equipment financing; long-term power purchase agreements; eligible state and federal grants; public infrastructure partnerships; commercial financing for separately viable water and energy projects. Grants improve project economics and are not the primary source of debt repayment. SECTION 9. FINANCIAL MODEL 9.1 Electricity cost structure Full cost includes generation fuel, renewable production, generator maintenance, battery replacement, distribution maintenance, transmission and electrical losses, insurance, environmental compliance, financing, depreciation, emergency reserves and utility administration. Objective: reduce total lifecycle cost per delivered kilowatt-hour while maintaining reliability. Comparisons use equivalent delivered electricity costs. 9.2 Annual energy expenditure sensitivity (29 GWh reference load) $0.20 per kWh: $5.80 million per year $0.25 per kWh: $7.25 million $0.30 per kWh: $8.70 million $0.35 per kWh: $10.15 million $0.40 per kWh: $11.60 million $0.45 per kWh: $13.05 million These are hypothetical system-wide scenarios, not SCE retail tariffs or verified Catalina generation costs. The actual baseline is established from SCE operating expenditure, fuel procurement, capital costs, approved revenue requirements and island electricity sales. 9.3 Cost components compared Existing dispatchable generation: fuel purchases, fuel transportation, maintenance, emissions compliance, equipment replacement, fuel inventory. Solar: installation, inverter replacement, panel cleaning, electrical maintenance, land or roof leasing, insurance. Battery storage: installation, inverter equipment, thermal management, fire protection, software, degradation, replacement reserves. Distribution: conductors, transformers, substations, protection systems, maintenance, emergency repairs. 9.4 Underwriting standards (Fiveo1 standards, not statutory requirements) Project debt service coverage ratio: minimum 1.30x base case; 1.20x absolute floor Contracted revenue: 70-80 percent of project revenue Construction contingency: minimum 10-15 percent, adjusted for project risk Operating reserve: at least 6 months of fixed operating expenses Debt maturity: consistent with contracted asset life Interest-rate risk: fixed-rate or hedged financing Battery replacement: funded lifecycle reserve Revenue assumptions: supported by executed contracts Grant assumptions: excluded from base-case debt repayment 9.5 Project financing structure Fiveo1 Energy Holdings, LLC acts as equity sponsor and development coordinator. Catalina Energy Project Holdings provides project-level ownership and financing. Special-purpose vehicles: Solar Project SPV, Battery Project SPV, Grid Project SPV, Generation Project SPV. Each owns or finances its assets and receives revenue under authorized contracts, separating construction risk, operational risk and financing obligations. 9.6 Financial protection practices No speculative electricity sales; no unsupported revenue projections; no unsecured cross-company guarantees; no construction contracts without defined scope and pricing; no borrowing against unapproved customer electricity revenue; no reliance on future grants to meet existing debt obligations; no unbudgeted expansion without investment approval; independent annual financial audits; independent engineering verification; transparent procurement; documented related-party transactions. SECTION 10. LAND, PROPERTY AND ENVIRONMENT 10.1 Land availability CPUC Resolution E-5269 (2023) described approximately 88 percent of Catalina Island as owned by the Catalina Island Conservancy and 11 percent by the Santa Catalina Island Company, and identified Middle Ranch as a location made available for consideration in SCE's clean-energy procurement. Fiveo1 financial models do not assume large land acquisitions or thousands of acres for solar. 10.2 Property priorities Priority 1: existing rooftops, buildings and municipal and commercial structures. Priority 2: commercial and industrial property. Priority 3: parking structures and solar canopies. Priority 4: previously disturbed land, including Middle Ranch. Priority 5: other sites only after ownership, environmental and engineering approval. 10.3 Environmental requirements Frameworks: California Environmental Quality Act (CEQA); California Coastal Act and coastal development permits; California and federal Endangered Species Acts; Clean Water Act; SCAQMD Rule 1135; local building and fire codes. Considerations: marine protections, protected habitats, archaeological resources, historic properties, wildfire exposure, stormwater, soil erosion, visual impacts, battery fire and hazardous-material requirements, generator emissions, noise, construction transportation. Potentially responsible agencies: City of Avalon; County of Los Angeles; California Coastal Commission; CPUC; California Energy Commission; SCAQMD; California Department of Fish and Wildlife; U.S. Fish and Wildlife Service; U.S. Army Corps of Engineers; other responsible authorities. 10.4 Battery safety and environmental management NFPA 855 compliance; certified equipment; LiFePO4 chemistry or independently evaluated chemistry; proper spacing and physical separation; thermal management and monitoring; fire detection and suppression; emergency isolation; fire department access; hazardous-material management; spill prevention and containment; end-of-life recycling; manufacturer-backed warranties; insurance-approved fire protection. Placement is evaluated against emergency access, prevailing wind, nearby residences and environmental exposure. SECTION 11. REGULATORY AND LEGAL FRAMEWORK Owning infrastructure, operating a generating facility, selling electricity and operating a regulated utility are distinct legal activities. 11.1 Authorities CPUC: investor-owned utility regulation, tariffs and approvals. California Energy Commission: state energy planning and project oversight. SCAQMD: air quality and stationary-source emissions. EPA: federal environmental and emissions requirements. California Coastal Commission: coastal development jurisdiction. City of Avalon: local land-use and municipal approvals. Los Angeles County: county permitting and emergency coordination. California State Lands Commission: state-owned coastal and marine lands. U.S. Army Corps of Engineers: federal waters and wetlands permits. California Department of Fish and Wildlife: wildlife and habitat requirements. 11.2 Interconnection Coordination with SCE on interconnection and protection studies may include system impact studies, distribution impact studies, short-circuit analysis, protection coordination, voltage regulation, fault-current assessment, inverter compatibility, anti-islanding protection, frequency response, power quality, communications, metering and operating agreements. California Rule 21 and other applicable requirements apply. A project capable of generating electricity is not automatically authorized to connect to or export power into SCE's system. 11.3 Microgrid law California Senate Bill 1339 established a statutory framework for microgrids. Public Utilities Code Section 8370 defines a microgrid as an interconnected system of loads and energy resources that can operate as a controllable entity and connect to, disconnect from or operate in parallel with a larger grid. Catalina already has an isolated system, so the proposal is a modernization and expansion project rather than creation of a new island microgrid. CPUC implementation requirements are examined against the specific ownership, interconnection and service arrangements. 11.4 Retail authority Fiveo1 does not treat its seven subsidiaries as independent retail electric utilities. Before serving customers directly, a subsidiary must establish the legal basis, including any applicable CPUC authorization, Certificate of Public Convenience and Necessity, local franchise, operating permit, tariff approval, consumer-protection compliance, procurement requirements, resource adequacy obligations and public utility registration. 11.5 Relationship with SCE First-stage arrangement: development and operating partnership with SCE. Fiveo1 seeks formal project-development discussions; access to non-confidential engineering data; generation and storage procurement opportunities; site-development agreements; power purchase agreements; energy-storage service agreements; infrastructure construction contracts; grid modernization partnerships; emergency-resilience agreements; long-term asset maintenance contracts. Objective: complement existing infrastructure. 11.6 Regulatory workstreams Generation interconnection and power sales: SCE; potentially CPUC review. Obtain interconnection approval and a long-term power purchase or services agreement. Battery storage and grid services: SCE; CPUC where applicable. Define dispatch rights, availability payments, reserve role and safety requirements. Distribution modifications: SCE; CPUC; local building and fire authorities. No unauthorized work on SCE-owned infrastructure. Solar siting and construction: City, County, Coastal Commission where applicable, fire and building officials. Air emissions: SCAQMD. Confirm permit status and limits for new or modified generation. Environmental review: CEQA lead agency and resource agencies. Water and wastewater integration: water and wastewater utility, public-health and environmental agencies; separates energy services from water-utility regulation. Community electricity procurement: CPUC and participating local government; determines whether any CCA-like model is viable for an island system. 11.7 Legal positions 1. Fiveo1 does not claim authority to sell retail electricity, set customer rates or operate SCE-owned assets without express authorization. 2. Revenue is sought through power purchase agreements, storage availability agreements, resilience services, infrastructure services or authorized public-private partnerships. 3. Proposals involving SCE distribution assets, metering, billing or customer switching are deferred until SCE and the CPUC define an approved pathway. 4. Any CCA concept is a separate legal and technical study. 5. Intercompany arrangements among the seven subsidiaries are documented, priced at arm's length and separately auditable. SECTION 12. IMPLEMENTATION ROADMAP AND DECISION GATES 12.1 Four-phase timeline Phase 0, Formation and Baseline (Months 0-6): corporate formation, governance, data requests, baseline load and cost study, stakeholder mapping. Gate: board approval of development budget. Phase 1, Feasibility and Siting (Months 6-18): electrical modeling, solar and storage siting, environmental screening, interconnection strategy, preliminary financial model. Gate: investment committee approval of preferred portfolio. Phase 2, Development and Permitting (Months 18-36): land control, CEQA review, permits, SCE agreements, final engineering, project financing. Gate: Final Investment Decision. Phase 3, Construction and Commissioning (Months 24-42): procurement, marine logistics, construction, testing, utility coordination, operational readiness. Gate: commercial operation. Phase 4, Operations and Expansion (ongoing): performance verification, additional storage and solar, demand response, resilience upgrades, reserve optimization, annual audits. Gate: annual portfolio review. 12.2 First-12-month work program Obtain 24-36 months of interval load data, generator dispatch records, outage records, fuel consumption and maintenance history from SCE or through authorized public records. Confirm current Pebbly Beach capacity, availability, fuel strategy, emissions limits and planned retirement or replacement dates. Map all 12 kV circuits, substations, switching points, critical loads and single points of failure. Complete solar and storage site screening for rooftops, parking structures, disturbed land and Middle Ranch. Conduct preliminary interconnection, protection, frequency-response and island-grid stability studies. Establish a community advisory process with Avalon residents, businesses, the City of Avalon, Los Angeles County, the Catalina Island Conservancy and SCE. Prepare a regulatory roadmap covering CPUC, SCAQMD, coastal, county, fire, building and environmental requirements. 12.3 Detailed implementation schedule Establishment, Months 0-3: establish Fiveo1 Energy Holdings and initial subsidiaries; obtain legal and regulatory opinions; engage independent engineering consultants; establish project accounting; begin SCE discussions; establish initial development budget. Technical and financial feasibility, Months 3-9: obtain historical load data; verify generation equipment; review the SCE repowering program; complete solar site assessments and battery engineering; analyze distribution infrastructure; evaluate water and wastewater energy requirements; prepare environmental baseline studies; obtain preliminary construction quotations; complete financial feasibility analysis. Contracts and approvals, Months 6-18: negotiate land agreements; complete interconnection studies; obtain permits; negotiate electricity purchase arrangements; secure financing commitments; complete independent engineering review; select contractors; obtain insurance; finalize procurement. Initial construction, Months 18-30: install approved solar and initial battery storage; upgrade approved grid components; install energy-management technology; commission electrical protection; complete emergency-power improvements. Expansion and optimization, Months 30-48: expand renewable generation and storage where justified; complete additional distribution improvements; integrate water infrastructure; optimize generator dispatch; verify reliability; complete independent financial and technical audits. Long-term operations, Year 5 onward: operate contracted assets; maintain equipment; monitor performance; replace aging components; evaluate further electrification; reassess alternative fuel and submarine cable options; publish annual operating and financial results. 12.4 Decision memorandum requirements for capital release 1. Confirmed technical need. 2. Site control or contractual site access. 3. Environmental and permitting feasibility. 4. SCE interconnection or coordination pathway. 5. Independent engineering review. 6. Financing plan and contracted revenue. 7. Construction-price certainty (fixed pricing). 8. Insurance, safety and emergency-response plan. 9. Community and agency engagement status. 10. Board-approved risk tolerance. No project receives construction funding if it depends on unverified demand, unexecuted power contracts, unresolved land control or assumed grant funding. 12.5 First 180-day action plan Days 1-30: corporate formation, legal review, project charter. Days 1-45: initial SCE engagement. Days 30-60: historical load and generation data acquisition. Days 30-90: solar, storage and distribution engineering. Days 45-105: land and property assessments. Days 60-120: environmental and regulatory review. Days 75-135: contractor quotations and procurement. Days 90-150: project-finance model and investor materials. Days 120-165: preliminary commercial agreements. Days 150-180: independent feasibility report and investment decision. Required first-stage documents: corporate ownership and subsidiary organization chart; independent electrical engineering feasibility report; SCE infrastructure and interconnection assessment; current island electricity consumption report; current generator and battery inventory; solar-resource and property availability study; environmental constraints assessment; battery safety and fire protection report; preliminary construction cost estimate; project-specific financing model; regulatory authorization memorandum; preliminary power purchase agreement; land access and lease agreements; construction procurement schedule; independent project risk assessment. SECTION 13. TECHNICAL DESIGN PRINCIPLES The system must remain stable during cloudy periods, nighttime hours, generator outages, battery faults, fuel-delivery delays and peak tourism demand. 13.1 Reliability standard (adopted before equipment selection) Maintain sufficient dispatchable capacity to serve the planning peak with the largest single generation resource out of service. Maintain operating reserves covering sudden loss of the largest online generator or battery inverter block. Maintain black-start capability and a documented restoration sequence. Maintain at least 72 hours of essential-load resilience through dispatchable fuel, storage, demand management and protected fuel logistics. Design solar and storage to ride through normal island frequency and voltage variations without instability. The 6-10 MW / 24-40 MWh battery portfolio is designed as a complement to dispatchable generation. 13.2 Initial portfolio Rooftop and commercial solar: 2-3 MWdc (low-land-use renewable generation) Disturbed-land solar, subject to approvals: 1-2 MWdc Battery storage: 4-8 MW / 16-32 MWh (renewable shifting, reserves, voltage support) Grid controls and protection: island-wide platform (visibility, dispatch, fault isolation) Critical-facility resilience: prioritized sites (water, wastewater, communications, public safety) Dispatchable generation: existing SCE fleet plus evaluated upgrades (firm capacity during low-renewable periods) SECTION 14. OPERATIONS, MAINTENANCE AND RISK MANAGEMENT 14.1 Operating model A 24/7 remote operations center operated through Fiveo1 Grid Technology monitors generation, storage, circuits, weather, fuel and critical-facility status. Local technicians from Fiveo1 Utility Services handle routine inspection, minor repairs, vegetation management coordination and emergency first response. Specialist contractors support major generator, inverter, transformer, substation and battery work. Critical spares are stored on-island, with marine freight pre-arrangements and dual-vendor freight contracts for long-lead equipment. Annual drills test black start, load shedding, battery failure, generator failure, fuel disruption, wildfire response and restoration. 14.2 Maintenance standards Solar arrays: cleaning, inspection, inverter service, corrosion checks. Measure: availability and energy yield. Batteries: thermal inspection, fire-system testing, capacity testing, software updates. Measure: usable capacity and round-trip efficiency. Generators: load testing, fuel-system inspection, emissions compliance, overhaul planning. Measure: starting reliability and runtime availability. Distribution: thermal scanning, insulation testing, vegetation management, switch maintenance. Measure: outage frequency and restoration time. Controls: cybersecurity patching, sensor calibration, failover testing. Measure: control-system uptime. 14.3 Risk register SCE does not approve interconnection or power purchase. Impact: project cannot deliver electricity. Mitigation: early SCE engagement; flexible configurations; critical-infrastructure microgrids; public-sector resilience projects. Insufficient suitable land or rooftops. Impact: solar target not met. Mitigation: prioritize rooftops and canopies; evaluate Middle Ranch; scale targets to confirmed sites. Environmental or cultural constraints. Impact: permit delay or denial. Mitigation: early biological, archaeological, visual, fire and coastal screening. Battery fire or thermal runaway. Impact: safety, outage, insurance and reputational. Mitigation: LiFePO4 chemistry; NFPA 855 separation; ventilation; thermal monitoring; gas detection; suppression; emergency plan. Marine logistics disruption. Impact: construction delay or parts shortage. Mitigation: on-island spares; staged deliveries; multiple freight arrangements. Cost escalation. Impact: budget overrun. Mitigation: fixed-price EPC contracts; 10-15 percent contingency; phased procurement. Demand growth exceeds forecast. Impact: insufficient capacity. Mitigation: modular solar and storage expansion; demand response; preserved dispatchable reserve. Cybersecurity incident. Impact: loss of visibility or control. Mitigation: NERC CIP-aligned network segmentation; multi-factor authentication; offline and air-gapped failover controls; utility-coordinated controls. Financing shortfall. Impact: delay. Mitigation: project-specific financing; contracted revenue; no grant reliance for debt service. Community opposition. Impact: permitting and political risk. Mitigation: transparent engagement; local hiring; visible reliability benefits; environmental safeguards. SECTION 15. EMERGENCY POWER AND ISLAND RESILIENCE 15.1 Emergency operating requirements Critical-load continuity for essential public services; immediate battery response to grid disturbances; generator redundancy; verified emergency fuel inventory; preservation of essential water pumping and treatment; independent backup power for communications; controlled black-start and restoration; segmented and protected control networks; documented emergency procedures. 15.2 Emergency fuel The fuel reserve requirement is set by engineering calculation using verified generator consumption, maximum emergency demand, expected renewable generation, storage availability, fuel delivery lead times, marine transportation availability, tank capacity, and fire and environmental restrictions. A fixed number of emergency fuel days is not stated until these variables are verified. 15.3 Critical-load separation Fiveo1 will assess grouping essential facilities into independently protected electrical zones so critical services continue while nonessential consumption is temporarily reduced. Potential critical loads: emergency medical services, fire and police facilities, water treatment, wastewater treatment, communications, emergency government facilities, emergency refrigeration. 15.4 Wildfire and extreme-weather resilience Fire-resistant electrical equipment; vegetation management where legally permitted; protected electrical enclosures; improved grounding; corrosion-resistant hardware; weather monitoring; remote fault detection; emergency distribution switching; battery fire protection; spare equipment inventory. SECTION 16. COMMUNITY ENGAGEMENT AND PERFORMANCE METRICS 16.1 Community commitments Local hiring and apprenticeship priorities for qualified Avalon residents; local subcontractor participation where commercially reasonable; public reporting of milestones, outage-performance improvements, emissions reductions and capital spending; community meetings before major siting, permitting or construction decisions; a community resilience benefit focused on water, wastewater, medical, communications, shelter and emergency-services continuity; no transfer of unacceptable wildfire, visual, noise or environmental burden to nearby residents. 16.2 Public dashboard Solar and battery production; system availability and outage performance; fuel use and emissions trends where authorized to disclose; construction schedule and marine-delivery status; capital budget versus actual spending; community concerns and resolution status. 16.3 Metrics Reliability: SAIDI and SAIFI improvement against documented SCE baseline. Renewable contribution: annual percentage of total GWh delivered; baseline then annual increase. Storage availability: minimum 95 percent contractual availability. Emissions: annual pollutant tons reduced consistent with SCAQMD limits and project agreements. Financial: debt service coverage ratio of at least 1.30x base case. Construction: schedule variance within approved contingency. Safety: zero lost-time or serious incidents; continuous improvement. Resilience: essential-load continuity during test events; 72-hour planning target. Community: annual reporting of local labor and contracting participation. Additional indicators: electricity availability percentage; fuel consumption in gallons per MWh; battery round-trip efficiency; distribution losses; generator efficiency; operating cost per delivered kWh; maintenance expenditure and completion; verified annual pollutant quantities. Reporting uses consistent measurement boundaries and independently verifiable data, with an annual infrastructure report of expenditure, operating results, renewable production, outages, emissions, maintenance and financial performance. SECTION 17. STRATEGIC POSITIONING AND DEVELOPMENT ALTERNATIVES SCE has stated that it continues to evaluate solar, storage and cleaner generation technologies, and that its 2022 all-source procurement produced no compliant bids while providing insights for future efforts. SCE also reported that the CPUC approved an Electrification Pilot in the 2025 Catalina Gas General Rate Case to study retiring the island gas distribution system and freeing propane for power generation. Fiveo1's near-term position is a local developer of solar, storage, controls, resilience and maintenance infrastructure able to participate in SCE's future Catalina clean-energy procurement or negotiate direct infrastructure and services agreements. Priorities: a technically defined first project rather than an immediate island-wide utility takeover; independently financeable solar-plus-storage configurations; resilience services for critical public infrastructure; documented coordination with SCE, the CPUC, SCAQMD, Los Angeles County, the City of Avalon and the Catalina Island Conservancy; a financial model based on actual island load, fuel, outage and maintenance data. Alternatives: Alternative A: distributed solar, initial storage and control improvements; lowest initial commitment; fallback if land, financing or approvals limit the program. Alternative B: solar, larger storage, grid modernization and contracted generation; the integrated development basis. Alternative C: expanded generation, extensive storage and submarine cable evaluation; long-term strategic alternative studied separately because of its different capital, marine engineering and regulatory profile. SECTION 18. FINAL PROJECT CONFIGURATION AND OBJECTIVES Fiveo1 Catalina Electric Infrastructure, Avalon, California 90704, proposed integrated system: Solar generation: 4.5-8 MWdc Battery storage: 24-40 MWh Battery discharge: 6-10 MW Utility subsidiaries: 7 Preliminary capital requirement: $70-143 million Initial development authorization: $5-8.4 million Development horizon: 4-5 years Long-term operations: 25-30 years Objectives: diversified generation portfolio; substantial local renewable contribution; grid-scale battery storage; modern distribution infrastructure; reliable emergency generation; reduced exposure to transported fossil fuels; improved system efficiency; integration of electricity and water infrastructure; advanced monitoring and control; long-term infrastructure maintenance; financially independent project subsidiaries; commercially supportable electricity contracts; regulatory compliance; environmental protection; emergency continuity for essential services. Electricity reliability is maintained throughout the transition; existing utility services are not disrupted during development, construction or commissioning. Each major investment has a defined ownership structure, documented operating responsibility, viable source of repayment and independently established economic benefit. SECTION 19. CONCLUSION Fiveo1 proposes an integrated infrastructure investment and development program for Avalon and the Santa Catalina Island electrical service area: establish Fiveo1 Energy Holdings and seven operating subsidiaries; develop renewable electricity and battery storage; modernize approved electrical infrastructure; integrate water and energy systems; and establish long-term commercial agreements with SCE. The existing SCE system is the starting point, not an asset Fiveo1 assumes ownership or operational control of without a separate transaction and regulatory approvals. The project initially prioritizes distributed solar, 24-40 MWh of battery storage, electrical modernization, grid controls and emergency-power improvements. Expansion is determined by verified demand, available land, environmental approvals, construction costs and contracted revenue. The $70-143 million envelope is a preliminary planning range to be replaced by independently verified engineering estimates and competitive construction pricing before financing or construction authorization. Strategic objective: a financially sustainable, resilient and technologically advanced electricity infrastructure platform supporting Avalon residents, businesses, visitors, public services and the island's long-term economic development. SECTION 20. SUPPLEMENTARY FACTUAL REFERENCE DATA Geography and governance Santa Catalina Island lies in the Pacific Ocean about 22 miles from the Southern California coast, is roughly 22 miles long and up to 8 miles wide, and covers about 76 square miles. The highest point is Mount Orizaba at about 2,097 feet. The City of Avalon incorporated in 1913. ZIP Code 90704 covers the island. The 2020 U.S. Census counted about 3,000 residents in Avalon; SCE's figure of about 4,100 covers the island's permanent population. The Catalina Island Conservancy was established in 1972. Unit and calculation references 1 MW equals 1,000 kW; 1 GWh equals 1,000 MWh; 1 GWh equals 1,000,000 kWh. Average continuous load in MW equals annual GWh divided by 8,760 hours (29 GWh gives 3.31 MW; 40 GWh gives 4.57 MW). Historical load factor is about 60 percent (3.31 MW average divided by 5.5 MW peak); the long-term case is about 65 percent (4.57 MW divided by 7.0 MW). The 1,600-1,900 kWh per kWdc screening yield equals a capacity factor of about 18 to 22 percent (yield divided by 8,760 hours). Battery duration in hours equals MWh divided by MW. Annual energy cost equals kWh consumed multiplied by cost per kWh (29,000,000 kWh at $0.20 equals $5.8 million). Debt service coverage ratio equals net operating income divided by scheduled debt service. Technology and standards Renewable diesel is produced by hydrotreating fats and oils and is chemically similar to petroleum diesel; biodiesel (fatty acid methyl ester) is a different fuel. Lithium iron phosphate (LiFePO4) cells have a nominal cell voltage of about 3.2 V and contain no cobalt or nickel. NFPA 855 is the standard for installation of stationary energy storage systems; UL 9540 certifies energy storage systems and UL 9540A is the test method for evaluating thermal runaway fire propagation. SAIDI (System Average Interruption Duration Index) and SAIFI (System Average Interruption Frequency Index) are defined in IEEE Standard 1366. Rule 21 is the CPUC-jurisdictional tariff governing interconnection of generating and storage facilities to California utility distribution systems. SCAQMD Rule 1135 limits emissions of oxides of nitrogen from electricity-generating facilities. NERC CIP standards govern cybersecurity of bulk electric system assets. Utility-scale lithium-ion systems commonly have round-trip efficiencies of roughly 85 to 90 percent. Solar module output typically degrades on the order of 0.5 percent per year, and inverters are commonly replaced within roughly 10 to 15 years. Legal and regulatory dates CEQA was enacted in 1970. The California Coastal Act was enacted in 1976. Senate Bill 1339, the microgrid statute codified at Public Utilities Code Section 8370, was enacted in 2018. NREL Technical Report NREL/TP-7A40-76779 was published in October 2020. CPUC Resolution E-5269 is dated August 10, 2023. SECTION 21. PRIMARY REFERENCE DOCUMENTS AND SOURCES 1. Southern California Edison, Catalina Island Repower Project: generator replacement, renewable diesel, emissions requirements and future renewable-energy evaluation. https://www.sce.com/about-sce/community/catalina-island 2. Southern California Edison, Catalina Island Utility Services: electricity, water and gas service information. https://www.sce.com/customer-service-center/help-center/catalina-island 3. National Renewable Energy Laboratory, Catalina Repower Feasibility Study, NREL/TP-7A40-76779, October 2020. https://www.nrel.gov/docs/fy21osti/76779.pdf 4. California Public Utilities Commission, Resolution E-5269, August 10, 2023. https://docs.cpuc.ca.gov/PublishedDocs/Published/G000/M513/K490/513490125.PDF 5. California Public Utilities Commission, Community Choice Aggregation regulatory information. https://www.cpuc.ca.gov/consumer-support/consumer-programs-and-services/electrical-energy-and-energy-efficiency/community-choice-aggregation-and-direct-access-/cca-regulatory-information 6. California Public Utilities Code Section 8370, Microgrids. https://law.justia.com/codes/california/code-puc/division-4-1/chapter-4-5/section-8370/ 7. Southern California Edison, Santa Catalina Island Repower Study, Existing Conditions. https://www.sce.com/sites/default/files/inline-files/SantaCatalinaIslandRepower.pdf 8. Southern California Edison, Catalina Island Clean Energy All-Source Request for Offers. https://newsroom.edison.com/releases/southern-california-edison-issues-catalina-island-clean-energy-all-source-request-for-offers 9. CPUC, 2023 Clean Energy Procurement Goals. https://www.cpuc.ca.gov/news-and-updates/all-news/cpuc-augments-historic-clean-energy-procurement-goals-to-ensure-electric-reliability-2023 10. Catalina Island Microgrid Projects. https://microgridprojects.com/projects/catalina-island PROJECT SPONSOR Fiveo1 Energy Holdings, LLC Evan Winter, Representative, District 69 - California Fiveo1, P.O. Box 312786, Avalon, California 90704, United States of America Prepared November 1, 2026.