Understand residual value in engineering projects: assets, service life, market value, scrap, decommissioning, terminal value, and its impact on DCF and NPV.
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Residual value is the economic value that an asset, system, or group of assets may still retain at the end of the analysis horizon adopted for a project. In engineering, it may represent sale value, reuse, transfer, repurposing, scrap, continued use, or another economically realizable alternative after the explicit study period. When the Business Case horizon is shorter than the asset’s economic life, ignoring this value can understate an alternative; when residual value is overstated, NPV can appear artificially attractive.
The concept must be separated from three uses that are often confused. In accounting, residual value helps determine an asset’s depreciable amount. In finite-life investment appraisal, it may enter as a cash flow at the end of the horizon. In business valuation, terminal value may represent all cash flows beyond the explicit period—not merely the resale price of equipment. In engineering projects, correct modeling depends on knowing which of these perspectives is being used.
For CAPEX decisions, residual value should be a traceable technical and economic assumption. Service life, obsolescence, asset condition, secondary market, dismantling, disposal costs, land value, contracts, licenses, and reuse potential can materially change the result. Residual value should therefore not be treated as a generic percentage of initial CAPEX merely to make the spreadsheet work.
What Is Residual Value
In an economic appraisal, residual value represents value that remains beyond the study’s explicit horizon and can be appropriated by the organization in an economically justifiable way.
HM Treasury’s Green Book 2026 establishes that the residual value of an asset at the end of the appraisal period should be considered to reflect its opportunity cost. The guidance notes that this value does not necessarily depend on an actual sale of the asset: it may reflect the best value obtainable through sale, lease, or alternative use.
IAS 16, in turn, addresses residual value in the accounting context of property, plant and equipment. The standard establishes principles for recognition, measurement, and depreciation of property, plant and equipment and requires periodic review of estimates related to useful life and residual value.
These two perspectives are related but not identical. Residual value used in an engineering DCF must represent the economic cash flow relevant to the decision, whereas accounting residual value serves the asset measurement and depreciation logic used in financial statements.
Residual Value Is Not Net Book Value
Net book value is the recorded amount after accumulated depreciation and any impairment losses. It is not automatically the price the organization could obtain or the economic benefit of keeping the asset in use.
Fully depreciated equipment may continue operating and retain significant economic value. Another asset may have a relevant book value and still have low resale value because of obsolescence, customization, or the absence of a secondary market.
Residual Value Is Not Residual Risk
In risk management, residual risk is the exposure remaining after responses and controls. In asset appraisal, residual value is an estimate of remaining economic value. The terms share the word “residual,” but refer to completely different concepts.
Residual Value Is Not Always Terminal Value
In valuation, terminal value represents the value of cash flows that continue beyond the explicit forecast horizon. Aswath Damodaran presents terminal-value approaches based on asset liquidation or continued business operation under stable growth.
In a finite-life engineering project, residual value may simply be the net disposal value of equipment, land, or components in the final year. In a productive unit expected to continue operating indefinitely, the final portion may have the broader nature of terminal value.
Why Residual Value Matters in Engineering Projects
Its relevance increases when an asset has a long economic life, high recoverable value, or an active secondary market.
Examples include:
- land and buildings;
- standardized industrial equipment;
- generators, transformers, and certain electrical assets;
- mobile equipment;
- modular infrastructure;
- systems with reusable components;
- assets that can be leased or transferred;
- strategic spare-parts inventory;
- transferable licenses when legally permitted;
- metals and materials with scrap value.
By contrast, highly customized systems, embedded installations, infrastructure that is difficult to dismantle, and rapidly obsolescing technologies may have low or even negative residual value when demobilization and disposal cost more than the recovered materials.
Residual Value and Service Life
Service life is one of the central variables in the estimate. IAS 16 considers useful life according to the asset’s expected utility to the entity and recognizes that it may be shorter than the asset’s total economic life.
This distinction is essential in engineering. A system may physically operate for 20 years but cease to be economically suitable after 10 for reasons such as:
- technological obsolescence;
- regulatory change;
- unavailability of spare parts;
- end of manufacturer support;
- higher OPEX;
- loss of efficiency;
- changes in required capacity;
- changes in architecture or technical standards;
- contractual restrictions;
- changes in operational strategy.
Physical life, technical life, accounting life, and economic life should therefore not be treated as synonyms.
Physical Life
The period during which the asset can physically exist or operate, considering wear, corrosion, fatigue, aging, and maintenance.
Technical Life
The period during which the asset remains capable of meeting defined technical and functional requirements.
Economic Life
The period during which keeping the asset remains economically rational relative to the available alternatives.
Accounting Life
The estimate adopted for recognizing depreciation according to accounting policy and applicable standards.
TCO and life-cycle cost analysis helps structure this discussion by comparing CAPEX, OPEX, maintenance, replacements, and disposal across the relevant period.
Residual Value and the Analysis Horizon
When alternatives have different economic lives, assigning zero value to an asset that remains useful beyond the horizon can distort the comparison just as much as overstating its future resale value.
A recurring error occurs when alternatives with different service lives are evaluated over the same horizon without accounting for remaining value.
Consider two solutions:
| Alternative | CAPEX | Estimated economic life | Study horizon |
| A | R$ 5 million | 8 years | 8 years |
| B | R$ 7 million | 15 years | 8 years |
If the study ends in year 8 and assigns zero value to alternative B, it disregards seven years of potential economic utility. This tends to artificially favor the shorter-life solution.
The correction may involve residual value, extending the horizon, repeating life cycles, or another methodology suitable for the case. The method must be consistent across alternatives.
How to Estimate Residual Value
Engineering residual value must come from the actual end-of-life route: sell, reuse, transfer, dismantle, recycle, or keep in operation. A fixed percentage of CAPEX does not replace this analysis.
There is no universal formula. The method depends on the nature of the asset and what can realistically be done with it at the end of the horizon.
Market Value Method
When an active secondary market exists, observable prices may be the best starting reference. They should be adjusted for age, condition, operating hours, specification, location, removal costs, and expected market conditions in the future year.
Comparing the price of new equipment with used-equipment prices without normalizing condition and age provides little useful information.
Economic Depreciation Curve Method
For asset classes with sufficient history, loss of value can be estimated as a function of age or utilization.
This curve should not be confused with straight-line accounting depreciation. Equipment may lose a large share of its value in the first few years and then stabilize. Other assets retain value while demand and technical support remain available.
Scrap Value Method
When functional utility ends, materials may still have recoverable value. Copper, aluminum, steel, batteries, and certain components have their own markets.
Scrap value must be net of:
- dismantling;
- segregation;
- decontamination when applicable;
- transportation;
- storage;
- taxes and fees;
- disposal of waste with no value;
- labor and handling equipment.
A gross value of recoverable metal is not net residual value.
Alternative-Use Value Method
An asset may not be sold but may be transferred to another project, branch, site, or function. In that case, economic value corresponds to the benefit of the best alternative use.
This logic connects to opportunity cost in engineering projects. Reusing a transformer at another site may avoid a future purchase; keeping unused equipment “because it is already paid for” may create no value at all.
Liquidation Method
When the asset or project will be closed, the analysis can estimate the proceeds from selling separable assets at the terminal date.
Damodaran notes that liquidation is more applicable when assets are separable and have a market. For highly specific or intangible assets, the estimate becomes much more difficult.
Net Residual Value
The value relevant to the cash flow is normally net of the costs required to realize it.
A simplified structure can be expressed as:
Net residual value = gross recoverable value − removal costs − sale/disposal costs − applicable tax effects
The exact components depend on the specific case and applicable tax regime.
If equipment can be sold for R$ 500,000 but requires R$ 120,000 for dismantling, R$ 40,000 for transportation, and R$ 20,000 in other disposal costs, the economic cash flow is not R$ 500,000.
Negative Residual Value
Not every asset ends with a positive value. Some create end-of-life liabilities.
Examples include:
- removal of contaminated infrastructure;
- environmental restoration;
- dismantling of complex installations;
- disposal of batteries or controlled substances;
- site remediation;
- demolition;
- demobilization of temporary facilities;
- contractual reinstatement of leased premises.
In this case, the economic “residual value” at closure may be negative.
The analysis should include these costs from the Business Case stage. Excluding decommissioning obligations from the DCF overstates the alternative.
Residual Value in Discounted Cash Flow
When residual value occurs at the end of the horizon, it is included as a terminal cash flow and discounted to the base date.
If the expected residual value in year n is RV and the discount rate is r:
PV of residual value = RV / (1 + r)^n
The more distant the horizon, the lower the present weight of residual value, especially under high discount rates.
The article on Discounted Cash Flow in Engineering Projects explores the consistency between cash flows, horizon, and discount rate in greater depth.
Simplified Example
Consider an asset with an estimated net residual value of R$ 1 million in year 10 and a discount rate of 10% per year.
The present value of this amount is:
PV = 1,000,000 / (1.10)^10 ≈ R$ 385.5 thousand
The terminal cash flow of R$ 1 million should not be added to NPV as if it occurred today. It must be brought to the same base date as the other cash flows.
Residual Value and Terminal Value
The distinction is especially important in DCF.
Finite-Life Project
If the project ends and its assets are sold or disposed of, the final cash flow may be estimated using residual or liquidation value.
Asset That Continues in Operation
If the study horizon ends before the asset’s life, residual value may represent the remaining economic utility.
Going Concern
If the economic unit continues indefinitely, terminal value may be calculated using a going-concern and stable-growth logic. This is a broader valuation approach than the simple residual value of assets.
Mixing the three situations may create double counting. The liquidation value of assets should not be included at the same time as a going-concern terminal value that already assumes those assets continue generating cash.
Residual Value and Depreciation
Accounting depreciation allocates the depreciable amount over the accounting useful life. Residual value is one of the assumptions that influence this calculation.
However, investment appraisal focuses on cash flow. Depreciation may affect taxes, but it is not, by itself, a cash outflow in the period.
An economic model should not simply adopt net book value as residual value without checking whether it represents a plausible economic realization.
Residual Value and Taxes
Disposal of assets may generate tax effects depending on the difference between sale price, tax basis, and the applicable rules.
The model should be developed with accounting and tax support when the effect is material. Engineering Consulting can estimate condition, service life, dismantling, and technical recoverability, but it should not replace the tax analysis required by the organization.
Residual Value and Working Capital
At the end of a project, part of the working capital may be released. This is not residual value of the asset, although it occurs in the same terminal period.
A final cash flow may separately include:
- net residual value of assets;
- working capital recovery;
- outstanding receivables;
- closing costs;
- demobilization obligations;
- tax effects.
Separating these components improves traceability and prevents a generic “residual” line from hiding distinct assumptions.
Residual Value and Land
Land deserves specific treatment because it is not consumed in the same way as equipment and buildings.
Economic value at the horizon may remain significant or even increase. However, the estimate should consider alternative use, restrictions, location, permitting, environmental liabilities, and conversion costs.
The Green Book emphasizes that land value should reflect its opportunity cost and best alternative use, rather than merely the historical purchase price.
Residual Value in Electrical Equipment
Transformers, generators, switchboards, UPS systems, and other equipment may retain value when they have:
- specifications that are still in demand;
- remaining technical life;
- documentation and maintenance history;
- tests that demonstrate condition;
- manufacturer support;
- spare-parts availability;
- the possibility of removal without damage;
- a market for used assets.
Conversely, customization, low efficiency, environmental restrictions, obsolescence, and lack of documentation can drastically reduce value.
Residual Value in Telecommunications, Automation, and Electronic Security
Electronic assets tend to become obsolete more quickly. A switch, server, camera, controller, or telecommunications device may remain physically functional while having reduced economic value because of technological evolution and end of support.
The appraisal should consider:
- product life cycle;
- firmware availability;
- support policy;
- protocol compatibility;
- cybersecurity;
- licensing;
- required capacity;
- secondary market;
- reinstallation cost.
For these systems, assuming residual value as a fixed percentage of purchase price is especially risky.
Residual Value in Data Centers
Data centers combine assets with very different service lives. Buildings, generators, transformers, chillers, UPS systems, batteries, racks, servers, and security systems age at different rates.
Applying a single residual percentage to the entire investment ignores this heterogeneity.
An asset-class approach can separate:
| Class | Main driver of remaining value |
| Land | location and alternative use |
| Building | condition and adaptability |
| Heavy electrical equipment | age, condition, and secondary market |
| Cooling | efficiency and technical life |
| UPS | technology, maintenance, and parts |
| Batteries | chemistry, cycles, and condition |
| IT | technological obsolescence |
| Racks and passive infrastructure | reuse and standardization |
This level of detail requires more work, but it can change the comparison between alternatives.
Residual Value in Mobile Assets
Vehicles, machinery, construction equipment, and other mobile assets generally have more transparent secondary markets.
In these cases, value curves by age and operating hours can be derived from auction history, dealers, and comparable transactions.
The quality of the estimate depends on adjusting for condition, location, configuration, maintenance, and base date.
Residual Value in Software and Licenses
Software follows a different logic. Licenses may be perpetual, subscription-based, non-transferable, or tied to hardware, a user, or a contract.
There is no automatic residual value simply because an upfront payment was made. Transferability and continuity must be verified contractually.
Know-how, data, and intellectual property may also retain value beyond the horizon, but their appraisal requires a specific approach.
Residual Value and Decommissioning
Closure should be modeled as a technical process.
The organization needs to answer:
- What will be shut down?
- What will be removed?
- What will be sold?
- What will be reused?
- What will remain installed?
- What requires controlled disposal?
- What area must be restored?
- Which contracts will be terminated?
- What documentation will be required?
- What is the net cost of each decision?
This perspective is especially important in industrial plants, energy, telecommunications, temporary infrastructure, and assets located in third-party properties.
Residual Value and TCO
TCO compares the total cost associated with acquisition, operation, maintenance, and closure. Residual value reduces net economic cost when there is genuine recovery of value.
A conceptual structure can be written as:
Economic TCO = CAPEX + OPEX + maintenance + replacements + closure − recoverable residual value
All components should be treated on the same time basis when the analysis is discounted.
The article on TCO and Life-Cycle Cost is the natural complement to this comparison.
Residual Value and Cost-Benefit Analysis
In Cost-Benefit Analysis in Engineering Projects, costs and benefits must be compared across the analysis horizon. Residual value is a terminal component that can change the result when assets retain significant utility.
It should not be classified as a recurring benefit. It is a closing cash flow or remaining value and should be identified accordingly.
Residual Value and Break-Even Point
Residual value can also change a project’s break-even point.
If two alternatives have different CAPEX, the higher-investment solution may require fewer additional annual benefits to reach break-even when it preserves significantly greater value at the end of the horizon.
Sensitivity analysis should test this assumption, especially when a significant share of NPV comes from the terminal cash flow.
Residual Value and Sensitivity Analysis
If a large share of NPV depends on the terminal cash flow, residual value is no longer a detail and becomes a critical decision assumption subject to evidence, sensitivity analysis, and gate review.
Future value is uncertain. The more distant the horizon, the harder it becomes to estimate market conditions, technology, asset condition, and disposal costs.
For this reason, the article on Sensitivity and Scenario Analysis provides an appropriate discipline.
An analysis can test:
- zero residual value;
- base-case estimate;
- favorable scenario;
- higher demobilization cost;
- earlier obsolescence;
- shorter service life;
- lower scrap price;
- loss of the secondary market.
If NPV remains positive only under an optimistic residual value, the decision is excessively dependent on this assumption.
Residual Value Switching Value
It is also possible to calculate the minimum residual value that keeps the decision economically valid.
Useful questions include:
- what residual value makes NPV equal to zero?
- how far can residual value fall before alternative B loses its advantage over A?
- what decommissioning cost eliminates the resale benefit?
These switching points turn an abstract estimate into a decision condition.
Example: Two Alternatives with Different Service Lives
Consider two solutions for the same requirement:
| Assumption | Alternative A | Alternative B |
| CAPEX | R$ 4 million | R$ 5.5 million |
| Economic life | 8 years | 15 years |
| Horizon | 8 years | 8 years |
| Net residual value in year 8 | R$ 0 | R$ 2 million |
Comparing CAPEX alone favors A. Comparing the complete cash flow may show a different scenario because B preserves economic capacity beyond the horizon.
The R$ 2 million value must be validated and discounted. It cannot be inserted as a convenience adjustment to offset the higher CAPEX.
Example: Equipment with Removal Cost
An item of equipment has a probable resale price of R$ 300 thousand in the final year.
Estimated costs:
- dismantling: R$ 60 thousand;
- lifting and handling: R$ 25 thousand;
- transportation: R$ 20 thousand;
- preparation and inspection: R$ 10 thousand;
- disposal of unusable items: R$ 15 thousand.
Before tax effects, the net value would be:
R$ 300 thousand − R$ 130 thousand = R$ 170 thousand
The difference shows why gross market price should not be entered directly as residual cash flow.
Example: Asset Without a Secondary Market
Consider a highly customized infrastructure asset. There is no likely buyer and removal would cost R$ 400 thousand.
Recoverable materials could generate R$ 100 thousand.
The net terminal cash flow would be negative by approximately R$ 300 thousand before other effects.
If the Business Case assumed a positive residual value equal to 10% of CAPEX, the analysis would be methodologically disconnected from the physical reality of the asset.
How to Obtain Evidence for the Estimate
Technical and commercial sources may include:
- internal disposal history;
- auctions and resales;
- specialized suppliers;
- valuation reports;
- measured asset condition;
- wear curves;
- maintenance reports;
- operating hours;
- electrical and mechanical tests;
- manufacturer support policies;
- spare-parts market;
- commodity indexes for scrap;
- dismantling and disposal contracts;
- real-estate appraisals.
The assumption should identify the source and the base date.
Residual Value and Asset Condition
Two assets of the same age may have very different values.
Condition depends on factors such as:
- load regime;
- environment;
- maintenance;
- number of starts or cycles;
- temperature;
- contamination;
- vibration;
- corrosion;
- technology upgrades;
- failure history;
- installation quality.
When residual value is material, inspection and condition data may have direct economic value for the decision.
Residual Value and Documentation
Documentation improves the ability to demonstrate condition and transfer assets.
Relevant records include:
- data sheets;
- certificates;
- maintenance history;
- test reports;
- commissioning records;
- firmware and configuration;
- licenses;
- As Built documentation;
- serial numbers;
- component traceability;
- warranty;
- modification records.
Technically sound assets without traceability may have lower market value or higher reuse costs.
Residual Value and Modularity
Modular designs may preserve more value because components can be reused, relocated, or expanded.
Modularity should not be selected solely because of residual value, but this benefit can be included in the analysis when there is a realistic reuse route.
This approach connects with Value Engineering in Engineering Projects, because the project can be optimized not only for initial CAPEX but also for flexibility throughout the life cycle.
Residual Value and Obsolescence
Obsolescence can be technical, commercial, regulatory, or functional.
An asset may lose value because:
- a replacement technology offers much higher performance;
- the manufacturer ends support;
- a standard changes;
- minimum efficiency requirements increase;
- a protocol is no longer accepted;
- a security vulnerability cannot be corrected;
- software no longer receives updates;
- market demand disappears.
IAS 16 recognizes technical or commercial obsolescence as a relevant factor in estimating useful life. In engineering, this needs to be incorporated from the design stage onward.
Residual Value and Procurement Strategy
The acquisition model can change recoverability.
Examples:
- traditional purchase transfers ownership to the contracting organization;
- leasing or rental may return the asset to the supplier;
- as-a-service models remove part of the resale concern but change OPEX and obligations;
- buyback arrangements can establish a contractual minimum price;
- a repurchase guarantee reduces residual-value uncertainty;
- leasing may include a purchase option and contractual residual value.
These conditions should be compared economically and legally. A value guaranteed by contract has a different nature from an estimate based solely on a future market.
Residual Value and Make-or-Buy
An organization may decide to purchase equipment with high recoverable value or contract the service without owning the asset.
The analysis should compare:
- CAPEX;
- OPEX;
- flexibility;
- technology risk;
- maintenance;
- ownership;
- residual value;
- closing cost;
- internal capability.
Residual value is only one dimension, but it can be decisive for mobile and standardized assets.
Common Estimation Errors
Using a Fixed Percentage of CAPEX
A percentage without a technical basis ignores age, use, technology, market conditions, and removal costs.
Confusing Book Value with Economic Value
Accounting depreciation does not determine market price or value in use.
Ignoring Disposal Costs
The relevant value is net of the costs required to realize it.
Ignoring Taxes
Asset disposal may generate a material tax effect.
Ignoring Obsolescence
A physically sound asset may have low economic utility.
Applying the Same Residual Value to Different Assets
A plant or system contains asset classes with different life cycles.
Using a Distant Nominal Value Without Discounting
A cash flow in year 15 is not equivalent to the same amount today.
Counting Residual Value Twice
Including both liquidation value and going-concern terminal value for the same assets overstates the appraisal.
Ignoring Decommissioning
Closing costs can turn a positive residual value into a negative one.
Failing to Test Sensitivity
The more uncertain and material the assumption, the greater the need to test ranges and switching values.
How to Document It in the Business Case
A robust Business Case should record:
- analysis horizon;
- list of assets considered;
- remaining economic life;
- estimation method;
- price source;
- base date;
- assumed condition;
- dismantling costs;
- transportation costs;
- sale or disposal costs;
- tax effects considered;
- gross residual value;
- net residual value;
- year of occurrence;
- discount rate used;
- scenarios and sensitivity;
- person responsible for validation.
The Business Case in Engineering Projects should keep this assumption traceable and reviewable throughout the gates.
Review Throughout FEL
At the beginning of a project, residual value may be estimated using benchmarks. As engineering matures, the assumption should improve.
During FEL — Front-End Loading, the following can be refined:
- asset configuration;
- quantity;
- horizon;
- service life;
- specification;
- contracting strategy;
- demobilization route;
- secondary market;
- closing costs.
Residual value should not remain frozen if the technical alternative has changed.
When Engineering Consulting Adds Value
Finance can model the cash flow, but the quality of residual value often depends on engineering information.
Engineering Technical Consulting can contribute with:
- technical-life assessment;
- condition analysis;
- obsolescence study;
- identification of reusable components;
- dismantling strategy;
- demobilization costs;
- reuse compatibility;
- disposal risks;
- technical market research;
- validation of assumptions.
The Technical and Economic Feasibility Study integrates these elements into the DCF, allowing alternatives to be compared with consistent horizons and remaining values.
Final Considerations
Residual value may look like a small assumption but can have a major impact on the result. It represents the portion of economic value that still exists when the explicit analysis horizon ends—whether through sale, reuse, transfer, continued use, or material recovery.
Estimating it requires distinguishing book value, market value, value in use, liquidation value, and terminal value. It also requires recognizing that some assets end their life cycle with a cost rather than a benefit.
In engineering projects, good practice is to break assets down by class, estimate economic life and condition, identify the realistic route for use or disposal, calculate net value, and test sensitivity. When NPV depends heavily on this terminal component, the organization should treat it as a critical decision assumption.
The objective is not to assign value to what is left over. It is to correctly represent what may still generate economic benefit—or cost—after the period the spreadsheet has chosen to see.
Engineering Consulting adds value when it converts service life, condition, obsolescence, dismantling, and technical recoverability into traceable economic assumptions.
Technical References
[1] IFRS FOUNDATION. IAS 16 — Property, Plant and Equipment. London: IFRS Foundation. Available at: https://www.ifrs.org/issued-standards/list-of-standards/ias-16-property-plant-and-equipment/
[2] HM TREASURY. The Green Book 2026: appraisal and evaluation in central government. London, 2026. Available at: https://www.gov.uk/government/publications/the-green-book-appraisal-and-evaluation-in-central-government/the-green-book-2026
[3] DAMODARAN, Aswath. Terminal Value. New York: NYU Stern. Available at: https://pages.stern.nyu.edu/~adamodar/New_Home_Page/littlebook/terminalvalue.htm
[4] DAMODARAN, Aswath. Estimating Terminal Value. New York: NYU Stern. Available at: https://pages.stern.nyu.edu/~adamodar/New_Home_Page/valquestions/termvalapproaches.htm
[5] PROJECT MANAGEMENT INSTITUTE. The Standard for Project Management and A Guide to the Project Management Body of Knowledge (PMBOK® Guide). 8th ed. Newtown Square: PMI, 2025. Available at: https://www.pmi.org/standards/pmbok
Frequently Asked Questions
It is the estimated economic value that can still be recovered or used at the end of a horizon through sale, reuse, transfer, scrap, or another possible use, net of the costs required to realize that value.
No. Book value results from recognition, depreciation, and impairment rules. Economic residual value should represent the cash flow or benefit that is actually relevant to the decision.
The method depends on the asset. It may use the secondary market, a value-loss curve, scrap value, alternative-use value, or liquidation. Removal, sale, disposal costs, and tax effects must be considered.
Yes, when it is economically relevant and occurs within the logic of the analyzed horizon. The future value must be discounted to the base date like the other cash flows.
Yes. When dismantling, environmental restoration, disposal, or other closure obligations exceed recoverable value, the terminal cash flow may be negative.
Not necessarily. Residual value usually represents remaining asset value or use at the end of the horizon. Terminal value in valuation may represent all cash flows of a business that continues after the explicit period.
The greater the remaining economic life and the better the condition, the higher recoverable value may be, provided there is utility or a market. Obsolescence can reduce value even when the asset still works.
Because it is a future estimate subject to market conditions, asset condition, obsolescence, and disposal costs. If a small change in this assumption changes the decision, the Business Case has a low margin of safety.
Supplementary Technical Materials
Related Solutions
- Project, Program, and Portfolio Governance
- Process, Workflow, and Technical Approval Management
- Contract, Scope, and Deliverables Management
Related Services
Key Content on the Topic
- Discounted Cash Flow in Engineering Projects
- TCO and Life-Cycle Cost in Engineering
- Cost-Benefit Analysis in Engineering Projects
- Opportunity Cost in Engineering Projects
