Lease
Present-value TCO
$188,684
Nominal TCO
$206,976
Upfront cash
$12,000
Equivalent annual cost
$42,383
PV cost per km
$1
PV cost per kg
$0
Refrigeration energy and maintenance PV
$13,510
Waste-loss PV
$3,180
Downtime and backup PV
$7,207
Compare a refrigerated-truck lease and purchase with matched quotes, distance, delivered weight, refrigeration energy and maintenance, temperature-excursion waste, downtime, financing, and residual value.
Illustrative defaults · not market benchmarks or recommended quotes
Match both quotes to the same horizon, distance, delivered weight, and refrigeration runtime.
Set included maintenance, insurance, or tax items to zero here to prevent double counting.
Match the chassis, body, refrigeration scope, and residual-value date to the lease option.
Lower present-value TCO
Purchase
5 years · Saving versus higher option 26.65%
Estimated PV saving
$50,284
Cumulative-cost crossover
1years 1months
Annual distance break-even
No crossover from 0 to 500,000 km
Other annual inputs, including refrigeration hours, weight, and cargo value, stay fixed
Present-value TCO
$188,684
Nominal TCO
$206,976
Upfront cash
$12,000
Equivalent annual cost
$42,383
PV cost per km
$1
PV cost per kg
$0
Refrigeration energy and maintenance PV
$13,510
Waste-loss PV
$3,180
Downtime and backup PV
$7,207
Present-value TCO
$138,400
Nominal TCO
$148,414
Upfront cash
$20,500
Equivalent annual cost
$31,088
PV cost per km
$1
PV cost per kg
$0
Refrigeration energy and maintenance PV
$14,923
Waste-loss PV
$5,299
Downtime and backup PV
$12,012
| Cost category | Lease nominal | Lease PV | Purchase nominal | Purchase PV |
|---|---|---|---|---|
| Initial acquisition or deposit | $12,000 | $12,000 | $20,500 | $20,500 |
| Lease payments or financing | $112,407 | $101,747 | $51,039 | $46,270 |
| Vehicle energy | $35,127 | $31,796 | $35,127 | $31,796 |
| Refrigeration energy | $11,803 | $10,683 | $11,803 | $10,683 |
| Vehicle maintenance and tires | $14,051 | $12,718 | $17,694 | $16,016 |
| Refrigeration maintenance | $3,122 | $2,826 | $4,684 | $4,239 |
| Insurance, tax, and fixed costs | $9,367 | $8,479 | $13,010 | $11,776 |
| Temperature-excursion waste loss | $3,513 | $3,180 | $5,855 | $5,299 |
| Downtime and backup truck | $7,962 | $7,207 | $13,270 | $12,012 |
| End and disposal costs | $1,624 | $1,335 | $433 | $356 |
| Deposit refund and residual value | -$4,000 | -$3,288 | -$25,000 | -$20,548 |
This holds one residual-value input across all horizons. Recalculate with a resale quote for each actual horizon.
| Horizon | Lease PV | Purchase PV | Estimated PV saving | Lower option |
|---|---|---|---|---|
| 3 years | $119,088 | $100,710 | $18,378 | Purchase |
| 5 years | $188,684 | $138,400 | $50,284 | Purchase |
| 7 years | $255,619 | $174,241 | $81,378 | Purchase |
| Horizon | Lease annual PV | Purchase annual PV | Lease cumulative PV | Purchase cumulative PV |
|---|---|---|---|---|
| 1 years | $49,128 | $49,578 | $49,128 | $49,578 |
| 2 years | $36,414 | $28,327 | $85,542 | $77,905 |
| 3 years | $35,714 | $27,597 | $121,256 | $105,502 |
| 4 years | $35,027 | $26,889 | $156,283 | $132,391 |
| 5 years | $32,400 | $6,009 | $188,684 | $138,400 |
Monthly loan payment
$851
Remaining principal at horizon
$0
Finance interest paid in horizon
$7,039
Lease deposit refund PV
$3,288
Purchase residual-value PV
$20,548
This calculator does not decide Korean freight permits, commercial plates, refrigerated-body modification or inspection, cargo-specific temperature compliance, insurance, or tax treatment. Use the actual contract, operating and temperature logs, and competent-authority confirmations.
A conventional vehicle decision may be dominated by acquisition, financing, insurance, and resale value. A refrigerated truck also carries a refrigeration energy load, refrigeration-specific maintenance, temperature-excursion waste, and downtime that may require an emergency replacement truck.
Two quotes for the same chassis can produce very different transport costs when insulation, refrigeration capacity, maintenance coverage, mileage limits, return conditions, and backup service differ.
A low monthly lease can hide an upfront payment or return-restoration charge, while a high purchase price can be offset by a long operating life and recoverable residual value.
This calculator places the actual lease contract and the complete chassis-body-refrigeration purchase quote on one monthly cash-flow timeline.
It reports nominal and present-value total cost of ownership, equivalent annual cost, cost per kilometre and delivered kilogram, refrigeration-only cost, waste loss, downtime cost, cumulative-cost crossover, and annual-distance break-even.
Every default is illustrative. It is not a market benchmark, price recommendation, or forecast.
A mathematically accurate result is still unusable when one quote contains a different truck body or service package.
Match the chassis, payload class, internal body dimensions, insulation, refrigeration model and capacity, partition, lift, temperature recorder, installation, and optional equipment.
Choose one consistent tax basis for both alternatives. If the lease includes insurance, vehicle tax, scheduled service, tires, refrigeration maintenance, or a backup truck, enter zero for the same separate lease input to prevent double counting.
Annual distance is the full odometer increase, not only paid kilometres. Annual delivered weight is the denominator for cost per kilogram, so do not substitute order count or pallet count without a consistent conversion.
Refrigeration runtime is not equal to driving time. Include pre-cooling, loading, unloading, and parked operation when the unit continues to run.
Annual cargo value is the actual cost or liability base exposed to spoilage, not automatically total sales revenue.
Separate a non-refundable upfront payment from a refundable deposit. Even a deposit with a 100% refund has a positive present-value cost because cash is tied up until the end of the horizon.
Enter the actual monthly payment for the matched chassis, body, refrigeration unit, and mileage allowance.
The end payment can represent a return or restoration charge, collection fee, or contractual buyout payment that will actually be paid under the selected plan.
Purchase price must include the matched chassis, insulated body, refrigeration unit, installation, and options. Enter the loan principal, annual rate, and amortization term from the actual financing offer.
If financing extends beyond the analysis horizon, the calculator settles the remaining principal in the final cash flow. This prevents a comparison that subtracts resale value but silently leaves debt unpaid.
Use a conservative residual-value quote for the same age, distance, body, refrigeration condition, and planned sale date rather than a best-case advertisement.
Annual distance divided by vehicle efficiency gives energy units, which are multiplied by the matching unit price.
Litres, kilowatt-hours, or another unit can be used as long as efficiency and price share the same unit.
Runtime multiplied by hourly energy use and unit price produces annual refrigeration energy cost.
Refrigeration maintenance is added separately so the cold-chain increment remains visible rather than disappearing inside general vehicle maintenance.
Annual cargo value multiplied by the observed waste rate estimates the financial loss.
Use disposed-product cost or actual liability, not total sales, unless total sales truly represents the amount at risk.
Downtime days are multiplied by lost daily contribution plus the net backup-truck cost.
Check that lost contribution, customer compensation, insurance recovery, and backup fees do not count the same economic loss twice.
Cargo-specific storage and transport requirements vary by product, business type, and contract. The calculator does not determine a compliant temperature, validate a cold-chain process, or decide whether a shipment must be discarded.
Use temperature-recorder, return, claim, and disposal evidence for the financial input, then verify food, pharmaceutical, livestock-product, or other cargo rules with the responsible authority and quality function.
PV = monthly cash flow / (1 + annual discount rate)^(month / 12)
TCO = upfront cash + recurring-cost PV + terminal-cost PV - terminal-credit PV
PV cost per km = PV TCO / (annual km × analysis years)
PV cost per kg = PV TCO / (annual delivered kg × analysis years)
The model uses an annual step factor for escalation and a fractional-year exponent for discounting. It does not describe escalation as a monthly compounded rate.
Equivalent annual cost converts the selected present value into a level annual amount at the same discount rate.
The English defaults assume 45,000 km, 600,000 delivered kg, 1,800 refrigeration hours, and USD 450,000 of cargo value per year.
The model uses a 4% discount rate and 2% annual general and energy escalation. The lease starts with USD 8,000 upfront, a USD 4,000 refundable deposit, and a USD 1,800 monthly payment. Purchase uses a USD 62,000 complete quote financed with a USD 44,000, 60-month loan at 6%.
These are synthetic values for formula verification, not quotes from a manufacturer, lessor, lender, or fleet operator.
| Metric | Lease | Purchase | Interpretation |
|---|---|---|---|
| Present-value TCO | USD 188,684 | USD 138,400 | Purchase is lower by USD 50,284 in this synthetic case |
| PV cost per km | USD 0.8386 | USD 0.6151 | Based on 225,000 total km |
| PV cost per kg | USD 0.0629 | USD 0.0461 | Based on 3,000,000 delivered kg |
| Refrigeration energy and maintenance PV | USD 13,510 | USD 14,923 | Cold-chain increment excluding vehicle energy |
| Waste-loss PV | USD 3,180 | USD 5,299 | Illustrative waste rates of 0.15% and 0.25% |
Purchase needs USD 20,500 upfront versus USD 12,000 for the lease, but the cumulative present-value lines cross in month 13 because recurring lease cash flow is higher.
The purchase loan payment is USD 851 per month and interest paid over the five-year horizon is USD 7,039.
No annual-distance crossover appears from 0 to 500,000 km under these defaults. That only means the fixed and variable assumptions keep purchase lower throughout this range; it is not a general recommendation to buy.
A short horizon emphasizes purchase cash and a long horizon emphasizes repeated lease payments, maintenance, and recoverable residual value.
Under the English synthetic defaults, purchase is lower by USD 18,378 at three years, USD 50,284 at five years, and USD 81,378 at seven years.
The horizon table deliberately holds one residual-value input across all three durations. For a real decision, replace it with a separate three-, five-, and seven-year resale quote and recalculate each case.
This is the first month when the cumulative present-value difference changes sign relative to the initial position.
It is a cost milestone, not a warranty, quality, or contract-risk conclusion.
The solver changes annual distance from 0 to 500,000 km while holding refrigeration hours, delivered weight, cargo value, and all other annual inputs fixed.
Recalculate a separate low-, base-, and high-volume scenario when those inputs move together.
This divides the absolute PV difference by the higher-cost alternative.
When the difference is smaller than plausible input error, focus on quote clarification and sensitivity instead of the displayed winner.
Multi-stop routes and long door-open periods can make refrigeration runtime exceed driving time.
Combine route, door-open, return, disposal, and claim evidence to reveal quality cost that a monthly vehicle quote does not show.
High cargo value can turn a small excursion rate into a material financial exposure.
This tool only converts a user-confirmed waste or liability rate into cost. Product temperature range, validation, logging, distribution practice, and carrier requirements need separate quality and regulatory review.
When volume is volatile, save low-, base-, and peak-volume cases instead of relying on one average month.
A lease may protect flexibility at low volume while a purchase may reduce long-run unit cost on a stable high-utilization route, but mileage allowances and early-termination terms can reverse that intuition.
A purchase result does not establish a Korean freight-business permit, commercial plate, vehicle-body modification approval, inspection pass, insurance suitability, tax treatment, or cargo-temperature compliance.
A lease result does not validate early-termination, restoration, accident, indemnity, or maintenance provisions. Confirm each issue from the actual contract and competent authority.
Enter zero for covered vehicle or refrigeration maintenance and add only excluded tires, refrigerant, consumables, call-out charges, or repair items. Ask for written scope when the contract is ambiguous.
Treatment depends on the business, taxable activity, vehicle use, invoice, contract structure, and current law. Put both alternatives on one consistent tax basis and obtain professional advice for filing and accounting.
Yes. Determine whether measured vehicle efficiency already includes refrigeration consumption. Enter zero for separate refrigeration use when only a combined meter is available, or separate the values when a dedicated meter or reliable equipment record exists.
Do not present an invented industry average as fact. Start at zero, then test small low, base, and high rates from returns, claims, disposal records, and temperature alarms to find the decision threshold.
The two present-value cost lines do not meet while distance alone changes from 0 to 500,000 km. Fixed costs may dominate or one alternative may stay lower throughout the search range. Recalculate separate scenarios when volume and refrigeration hours change with distance.
They do not change the lease-versus-purchase difference when route and staffing are identical. Add common wages, tolls, overhead, and revenue in a full business-profit model after choosing the vehicle-cost scenario.
Present-value life-cycle costing follows the comparison principle in NIST Handbook 135e2022, DOI 10.6028/NIST.HB.135e2022. NIST provides a methodology, not refrigerated-truck prices, Korean discount rates, fuel forecasts, maintenance costs, or service lives.
Korean legal sources were checked through the National Law Information Center OPEN API on August 17, 2026. They define matters that remain outside this financial model rather than fixed cost inputs.
MST 286989 also contains provisions promulgated for December 17, 2026. Articles 34 and 43 were therefore rechecked through the effective-date endpoint for June 16, 2026.
Future maintainers should verify the then-effective texts before changing the compliance note. The calculator does not predict a permit, approval, inspection result, temperature standard, insurance outcome, or tax position.
Enter the last 12 months of distance, delivered weight, refrigeration runtime, waste, and downtime together with matched written lease and purchase quotes.
Inspect which category creates the difference instead of relying only on the displayed winner. The answer becomes useful when it produces specific questions about maintenance coverage, return cost, backup service, refrigeration efficiency, waste prevention, financing, and residual value.
Proceed only after the choice remains stable across low, base, and high operating and resale scenarios and all local compliance duties are separately confirmed.