1 / 25

Advanced Capital Budgeting

Advanced Capital Budgeting. Contents -. Re-visit the basics Compare various project evaluation methods Unequal project lives Capital Rationing Capital budgeting during Inflationary conditions Evaluation techniques under Risk & Uncertainty. Capital Budgeting ??.

ayasha
Download Presentation

Advanced Capital Budgeting

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript


  1. Advanced Capital Budgeting

  2. Contents - • Re-visit the basics • Compare various project evaluation methods • Unequal project lives • Capital Rationing • Capital budgeting during Inflationary conditions • Evaluation techniques under Risk & Uncertainty

  3. Capital Budgeting ?? • Capital Budgeting refers long term planning of capital expenditure. • Heavy funds outlay, hence very risky decisions. • Benefits of project are spread over several time periods in the future. • Cost-benefit analysis for profit maximization, (↑ risk, ↑ return) • Decisions involve extensive estimations and future predictions. • Long term commitment of funds under uncertain future conditions.

  4. Critical Evaluation – Why ?? • Very high initial investments • Effect of decisions are known only in the future • Decisions are irreversible, so acceptance of project very critical • Quantification of future events and cash flows complicated. There are too many known / unknown factors which influence the project. Hence, every cash flow is only a probable figure. Consideration of risk and uncertainty is highly necessary.

  5. Evaluation Methods • Payback Period • Discounted Payback • Accounting Rate of Return (ARR) • Net Present Value (NPV) • Profitability Index (PI) • Internal Rate of Return (IRR)

  6. Comparison of Appraisal Methods • NPV vs. PI – • Both methods use the concept of time value of money. • For given project, NPV and PI would give the same result, i.e. Accept or Reject. • However, in case of mutually exclusive projects NPV method should be preferred. • NPV indicates the economic contribution or surplus of the project in absolute terms. Higher the NPV, better the project.

  7. Comparison of Appraisal Methods • NPV vs. IRR – • Both methods use the concept of time value of money. • However, for certain situations both methods may give conflicting results (w.r.t. accept / reject) • Conflict arises in projects where cash outflows arise at different pts. of time and huge differences between initial CFAT and later years CFAT. • Under situations of variance, NPV method should be adopted since it is directly linked to the wealth maximization principle. • Also, it is presumed that cash inflows are re-invested at the rate of IRR, while NPV method, re-investment is at the cut-off rate. Re-investment at the cut-off rate is more realistic / practical than re-investment at IRR rate.

  8. Unequal Projects Lives • In case of mutually exclusive projects, NPV is a correct method. • But, for projects with unequal lives, NPV may give incorrect results. • Hence, for comparison purposes, it is important to bring the projects at a same footing. • Therefore, Annual Equivalent Value (AEV) is computed by dividing the NPV by the PV Annuity factor over the project life. • The AEVs are compared and decision taken for selection of project. • AEV = NPV PV Annuity Factor (r, n)

  9. Capital Rationing • Firms normally have fix annual budget for Capex. (max amt.) • Firms select a combination of projects within the budget to maximize the profitability. • Such type of selection process is known as Capital Rationing. • Capital Rationing may be due to external and/ or internal constraints. • External factors include imperfections in capital market, such as lack of market information, non-availability of easy funds etc. • Internal capital rationing consists of self-imposed restrictions by the management, e.g. no borrowing policy, min. expected rate of return.

  10. Capital Rationing (contd.) • Projects with positive NPV be selected to max. shareholders’ wealth. • Under capital rationing, there are two major decisions faced by the management – maximize returns and / or full utilization of funds. • Thus, less profitable projects may be selected to utilize total funds or major funds be remain unutilized in order to maintain high profits. • For capital rationing, PI should also be used along with NPV. Also, capital rationing can be solved using linear programming (simplex).

  11. Inflation & Capital Budgeting • Inflation results in erosion of value of money over a period of time. • Since cash inflows of an investment occur over long future periods, the impact of inflation must be considered during project evaluation. • Generally, managers think that inflation can be offset by increasing the selling prices of its commodities. • The same is not always true, since input costs (being sensitive) rise at a fast rate, and selling prices are ruled by Competition & Govt. • Financial performance are based on financial statements that are prepared conventionally, based on historical costs. • Hence, under inflation financial analysis may be vitiated, and may result in exaggerating the profit figure. Replacement of depreciated assets is affected due to historical costs and current funds required.

  12. Inflation (contd.) • A project is subjected to inflationary pressures from time to time, ranging from 6 months to more than one or two years. • Following guidelines should be used for such project appraisals – • Make provision for cost escalation, w.r.t. expected inflation rate • Various sources of finance should be verified for probable revisions in interest rates by lenders. • Adjustments should be made in cash flows and profitability projection • Assess the financial viability of the project at the revised rate and justify the same for its economic feasibility. The rate of return should also include the rate of inflation per annum • Projects with early payback period should be preferred being less risky i.e. less prone to inflation.

  13. Risk & Uncertainty (contd.) • ↑Risk ≈ ↑ Returns • Techniques to manage risk – • Payback • Risk-adjusted discount rate • Certainty Equivalent • Sensitivity analysis • Scenario analysis • Decision Tree analysis • Cash flow Probability • Standard Deviation • Simulation model

  14. Techniques of Risk Mgt. • Payback • Oldest and commonly used method for recognizing risk associated with investment projects. • Payback criteria is primarily used for mitigating risk rather than measure profitability. Suitable for capital deficiency, cautious mgt. etc • Firms prefer shorter payback • Payback ensures liquidity by quick recovery of capital. • Reduction of risk element by eliminating longer projects. • Payback only considers risks related to time, but ignores the time value of money.

  15. Techniques of Risk Mgt. • Risk-Adjusted Discount Rate • Expected rate of return consists of a risk-free rate (+) premium for business risk (+) financial risk. • Based on the above reasoning, risks related to time preference may also be added to the risk-free rate. • Such a composite rate is known as Risk-adjusted Discount Rate, reflecting the management’s attitude towards risk involved in projects. • Under this approach, a higher rate of discount is adopted for more risky projects & lower discount rate for projects considered less risky. • The approach is simple to understand, recognizes risk and uncertainty. • However, no concrete way of deriving risk premium, i.e. computation of the higher rate of discount. No risk adjustment made for cash flows

  16. Techniques of Risk Mgt. • Certainty Equivalent Approach • According to Certainty Equivalent approach, adjustments for risk are made to the cash flows itself, arising in the future. • Cash flows are reduced to conservative level by applying a correction factor termed as Certainty Equivalent Co-efficient (CEC). • This correction factor is the ratio of risk-less (certain) cash flows to risky cash flows, i.e. CEC = Risk-less cash flows / Risky cash flow • CEC assumes a value between 0 and 1, and varies inversely with risk. • CEC are subjectively / objectively established by the decision maker and multiplied by the cash flows to arrive at adjusted cash flows. • These adjusted cash flows are further used for project evaluation through payback, NPV, IRR or any other method.

  17. Techniques of Risk Mgt. • Certainty Equivalent Approach (contd.) • The Certainty Equivalent approach explicitly recognizes risk involved in investment projects. • However, process of reducing the cash flows is more subjective / person dependent and can be inconsistent for different projects. • This approach also suffers from the drawback of prior floating of the cash flows, before adjusting the same for risk element. Such practices defeat the whole purpose of certainty equivalent co-efficient. • Certainty equivalent is a superior approach than risk-adjusted discount rate method, because it can measure risk more accurately. • Under risk-adjusted method, more the time - higher risk is associated, that may not be true. Gestation time is riskier than future stability. In such situations, CEC is better option than risk-adjusted discount rate.

  18. Techniques of Risk Mgt. • Sensitivity Analysis • Sensitivity analysis measures how sensitive / responsive are the estimated parameters (cash flows, discount rate, project life etc.) of a project against the estimation errors / market forces / uncertainty. • Hence, Sensitivity Analysis is a way of analysing the changes in project’s NPV (or IRR) for a given change in one of the variables. Higher sensitive the NPV, more critical is the variable. • Three important steps in sensitivity analysis are – • Identification of variables having influence on project’s NPV. • Definition of the underlying (mathematical) relationship between the variables. • Analysis of the impact of the change in each of the variable on the project’s NPV. (‘management by exception’)

  19. Techniques of Risk Mgt. • Sensitivity Analysis • During sensitivity analysis, the decision maker computes the project’s NPV (or IRR) under three assumptions – • Pessimistic • Most Likely • Optimistic • Most important question in sensitivity analysis – “What If ?”

  20. Techniques of Risk Mgt. • Scenario Analysis • Simple sensitivity analysis assumes that the variables are independent. • However, in practice the variables may be inter-related • For e.g. increase in sales quantity. reduction in selling prices, increase in variable costs etc. • Hence, Scenario Analysis considers impact of alternative combinations of variables.

  21. Techniques of Risk Mgt. • Decision Tree Analysis • During capital budgeting, decision makers have to identify & evaluate the various alternative courses of action, leading to the final decision. • However, present investment decisions may have implications on future decisions, and may affect future events. Hence, a series of decisions should be judged, ranging from present to the future. • Decision Tree is an technique to evaluate such sequential decisions. • When a sequential series of conditional decisions are required to be taken under uncertainty, a decision tree model facilitates visualization and evaluation of all possible options for action. • A decision tree is a graphic display of the relationship between a present decision vis-à-vis future events, decisions & its consequences.

  22. Techniques of Risk Mgt. • Decision Tree (contd.) • Basic steps for decision tree– • Investment proposal should be defined • Clearly identify decision alternatives • Decision tree should be drawn indicating the decision points, events and other data such as projected cash flows, probabilities. • Analyse the results and select the best alternative. • Decision tree clearly brings out the implicit assumptions, calculations for all to check and revise accordingly. • Visualization of alternatives in graphic form is easier to comprehend. • This approach not suited to increased variables, alternatives etc.

  23. Techniques of Risk Mgt. • Probability of Cash Flows • The most crucial information for capital budgeting decision is the forecast of future cash flows. • However, future is uncertain and hence we need to provide a range of probabilities associated with the cash flow estimates. • Probability can be described as a measure of someone’s opinion about the likelihood of occurrence of an event. (optimist, normal, pessimist) • Under this approach, probabilities are assigned to future cash flows and further analysis is carried out for payback, NPV, IRR etc. • This approach recognizes the risk associated with estimation of future cash flows and provides for reduction in the same via probabilities. • But, assigning probabilities is subjective and may lack consistency.

  24. Techniques of Risk Mgt. • Standard Deviation & Co-efficient of Variation • Assigning probabilities to cash flows exhibits the risk element in capital budgeting decisions. • However, a better approach to risk analysis is to measure the spread / dispersion of the cash flows, through Standard Deviation or Variance. • Standard Deviation is the deviation from the mean cash flows. Higher the std. deviation, higher the risk and vice versa. • Co-efficient of Variation is a relative measure of risk. It is useful for comparing projects with same std. deviation but different values or same values but different std. deviations etc. ↑ CV implies ↑ risk • Co-efficient of Variation (CV) = Std. deviation expected value (mean) • Final selection of project depends on investors’ attitude towards risk.

  25. Techniques of Risk Mgt. • Simulation Model • Use of simulation models are an outcome of the deficiency of decision tree method for managing large quantum of data and alternatives. • Simulation is a quantitative procedure whereby a series of organized experiments are conducted to predict the probable outcome of the given alternatives. • It implies construction of a model to represent a real-life situation, which allows substitution of critical variables within the model. • Simulation makes use of probabilities and random number series to predict the uncertain events and its influence on the final outcome of the project.

More Related