Radiation Oncology Center Startup Costs: $68M CAPEX Plan

Radiation oncology CAPEX calculator objective

What should the CAPEX tab show?

The screenshot of Radiation Oncology Center Financial Model Template CAPEX tab shows startup costs, launch timing, amounts, depreciation/amortization. Review assumptions.

Screenshot highlights

• Month 1 to 8 CAPEX
• $6,795,000 total spend
• $942,000 cash need

PREVIEW

How should a radiation oncology startup funding plan be modeled?

Model the Radiation Oncology Center funding plan as an 8-month CAPEX and ramp model, then layer in reimbursement, staffing, payer mix, treatment volume, debt service, and working capital. The base case uses $6,795,000 total CAPEX from Month 1 to Month 8, with Year 1 revenue of $18,052,000 and EBITDA of $13,451,000. That output points to 23% IRR, 21,539% ROE, Month 1 breakeven, and a 9-month payback, so the next step is a funding model that stress-tests assumptions before lender or investor review.

CAPEX and ramp

• $6,795,000 total CAPEX
• Month 1 to Month 8 spend window
• Month 1 breakeven in base case
• 9-month payback target

Returns and review

• $18,052,000 Year 1 revenue
• $13,451,000 EBITDA
• 23% IRR output
• 21,539% ROE output

What hidden startup costs for a radiation oncology center should founders plan for?

If you're opening a Radiation Oncology Center, the hidden costs are mostly pre-opening work and working capital, not just equipment. The business plan at How Do I Write A Business Plan For Radiation Oncology Center? should include physicist commissioning, shielding reports, credentialing, payer enrollment, staff training, QA testing, insurance, compliance, initial supplies, billing setup, and cash reserves. Use $8,500 monthly professional liability insurance, $15,000 equipment service contracts, and $59,000 total monthly fixed facility overhead as anchors, with 18% of Year 1 revenue for variable costs and a $942,000 Month 6 cash gap.

Pre-opening costs

• Physicist commissioning before launch
• Shielding reports and QA testing
• Credentialing and payer enrollment
• Staff training, compliance, billing setup

Cash and overhead

• $8,500 monthly liability insurance
• $15,000 equipment service contracts
• $59,000 fixed monthly overhead
• 18% Year 1 variable costs, plus $942,000 gap

How much does a linear accelerator cost for a radiation oncology center?

A linear accelerator for a Radiation Oncology Center is modeled at $3,500,000, and that number dominates the radiation therapy equipment budget because it includes installation, accessories, patient monitoring linkages, commissioning, quality assurance, service setup, and the treatment capacity you buy. The machine is separate from the $1,200,000 radiation shielding vault and $600,000 facility buildout, so the core project is about $5,300,000 before other startup costs. New vs. used equipment, bunker condition, and clinical capabilities can move the budget a lot.

What drives machine cost

• $3,500,000 modeled system cost
• Installation is part of CAPEX
• Accessories raise the total
• Commissioning and QA add spend

What changes the budget

• $1,200,000 shielding vault is separate
• $600,000 buildout is separate
• Used units can lower CAPEX
• Clinical capability changes price

Radiation oncology startup cost breakdown table objective

Radiation Oncology Center Core Five Startup Costs

Linear Accelerator System Startup Expense

Accelerator package

The $3,500,000 base budget covers Months 1-6 for purchase or lease planning, installation, accessories, patient positioning links, commissioning, quality assurance, and service arrangements. This is the treatment delivery system, and it is separate from the $1,200,000 vault and $850,000 CT simulator. Match the beam package to IMRT, SBRT, and IGRT needs.

Budget inputs

Use one vendor quote, install scope, service start date, beam capability, expected uptime, and commissioning timeline to size the spend. New versus used changes both price and risk. The clean split is $3,500,000 for the accelerator package, separate from the $1,200,000 vault and $850,000 CT simulator.

• Ask for new-versus-used pricing
• Confirm service start timing
• Verify beam options and uptime

Spend control

Control cost by separating hardware price, installation, and service terms, then paying only for beam features you will use. The big mistake is buying extra capability before patient volume proves it. Tighten the quote, protect quality assurance, and avoid late change orders that push the Month 1-6 budget higher.

Commissioning check

Before signing, confirm whether the service contract starts on delivery or on go-live, how long commissioning takes, and what uptime is guaranteed after installation. If the beam spec does not support the planned IMRT, SBRT, or IGRT workflow, the center can end up with a costly mismatch.

Radiation Vault And Facility Buildout Startup Expense

Vault Budget

Plan $1,200,000 for the vault from Month 1 to Month 8. This covers shielding design, concrete or lead, structural work, HVAC, electrical capacity, patient flow, control areas, and inspection readiness. Keep it separate from the accelerator and CT simulator, or bids will look cheaper than they are.

Interior Buildout

$600,000 from Month 1 to Month 7 is the base interior buildout. Use it for the shell work that supports clinical use: walls, finishes, utilities, and room flow, not the treatment machine itself. Ask for itemized quotes by scope so you can see what the landlord covers and what stays on you.

Control the Scope

The cleanest savings come from matching scope to the existing shell. Get the landlord work letter, confirm electrical service, and check local inspection timing before bidding. A ready vault cuts redesign risk; a bad lease or weak electrical feed can add delay and change the price fast.

What to Verify

Start with the site facts: existing vault condition, landlord work letter, electrical service, local inspection timing, and lease language on specialized clinical construction. These five items decide whether the $1.8 million core shell budget stays intact or needs rework.

CT Simulation, Planning, Imaging, And QA Startup Expense

CT Sim Budget

The CT simulation, planning, imaging, and QA stack starts at $1,195,000: $850,000 for the CT simulator in Months 1-5, $250,000 for planning workstations in Months 2-4, and $95,000 for patient monitoring equipment in Months 4-6. Add software, dosimetry tools, immobilization devices, phantoms, QA gear, and delivery-system integration.

Cost Inputs

Build this cost from units × price, vendor quotes, and months of coverage. Treat CT simulation, contouring, planning software, dosimetry tools, immobilization devices, phantom and QA equipment, and integration work as required workflow assets, not add-ons. One clean check: all tools must work together before first patient.

• Use vendor quotes for each system.
• Match spend to launch months.
• Verify delivery-system integration early.

Keep It Tight

Do not cut QA or simulation hardware to save cash; that usually moves cost into delays and rework. Ask for phased installs, bundled service, and clear start dates for support. One simple rule: buy for uptime and compliance first, then trim only where quality stays intact.

Software Fees

Plan for Year 1 treatment planning software fees at 30% of revenue. That is a recurring operating cost, so model it monthly against collections, not as one-time capex. If volume ramps fast, this line scales fast too, and it can squeeze cash even after the build is funded.

Licensing, Compliance, Physics, And Professional Services Startup Expense

License path

This budget covers state radiation control approval, shielding calculations, legal setup, accreditation prep, payer enrollment, and radiation safety officer setup. The approval path changes by state and by agreement-state or federal oversight, so don’t use one generic license plan. Keep it separate from the $6,795,000 CAPEX if these costs are expensed.

Year 1 anchors

Use the model’s staffing anchors to price this work: $210,000 for the medical physicist and $450,000 for the medical director in Year 1. Add outside help for commissioning, compliance filings, and payer setup. Here’s the quick math: these are startup operating costs, not treatment equipment, so don’t bury them in vault or accelerator spend.

Timing risk

The real risk is starting late. Commissioning, physics sign-off, and local approval must finish before the first patient, or payroll runs with no treatment revenue. If inspection, lease work, or electrical service slips, opening slips too. One delayed month can matter more than a small fee cut.

No template

Don’t copy a one-size-fits-all license packet. State rules differ, and the center may need separate steps for shield review, medical physics commissioning, radiation safety officer naming, and payer enrollment. Confirm who files each item, when the physicist starts, and whether any of these costs are capitalized or expensed before treatment begins.

Pre-Opening Staffing, Insurance, Supplies, And Launch Setup Startup Expense

Launch Readiness

Pre-opening spend covers recruiting, credentialing, training, front office setup, billing setup, patient positioning supplies, and launch marketing, plus payroll before the first treatment. Separate this one-time readiness spend from recurring payroll after opening so you can see true launch cash needs. What this estimate hides is the cash gap between hiring and the first paid claims.

Core Payroll

Year 1 core payroll totals $1,170,000: $450,000 medical director, $210,000 medical physicist, $145,000 dosimetrist, $190,000 oncology nurse specialists, $65,000 patient navigator, and $110,000 center administrator. Estimate it from headcount, start dates, and months worked before opening.

Insurance

Malpractice (professional liability) insurance is $8,500 per month, or $102,000 a year. Estimate it with months of coverage and carrier quotes, and keep general liability on its own line. If coverage must start before training, include that month in launch cash.

Supply Load

Year 1 supplies and isotopes run at 60% of revenue, so this is the biggest variable cost after staffing. Keep one-time readiness buys separate from recurring use, and tie order size to actual volume, not the opening schedule.

Radiation oncology center startup cost scenarios table objective

Scenario Table

Lean, Base, and Full launches change cost fast because equipment, vault work, staffing, and working capital all scale together. The biggest swing is whether you already have a usable vault and can keep the staffing ramp tight.

EXPORT XLSX

Three launch paths with different capital, staffing, and runway needs.

Scenario	Lean LaunchLean scope	Base LaunchCore stack	Full LaunchExpanded scope
Launch model	Uses fewer treatment capabilities, a tighter staffing ramp, and an existing usable vault if one is available.	Uses the modeled build with the core equipment set and standard opening ramp.	Adds deeper staffing, broader services, and a stronger imaging and planning stack.
Typical setup	Starts with one accelerator, limited planning gear, and only the staff needed to open safely.	Includes one $3.5M accelerator, a $1.2M vault, an $850k CT simulator, and $250k of planning workstations.	Runs with more specialists, more redundancy in care delivery, and more working capital to absorb ramp risk.
Cost drivers	Existing vault use fewer specialists smaller imaging stack lighter buildout lower runway	Accelerator vault CT simulator planning workstations Month 6 cash gap	More specialists stronger imaging stack broader service mix extra working capital higher launch burn
Planning rangeCAPEX only	$4.8M - $5.8MLower funding need	$6.8M - $7.8MBase funding case	$8.5M - $10.5MHigher funding risk
Best fit	Best for founders with an existing vault, referral access, and a slow start plan.	Best for teams building a full-service center around the modeled equipment and staff plan.	Best for operators aiming for wider clinical coverage and more cushion before cash turns positive.

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Planning note: Scenario ranges are researched planning assumptions, not exact quotes or vendor bids.