Thursday, August 8, 2013

Financial Management in Projects


        Types and Sources of Finance
        Senior debt- Debt financing.  This types of financing have to be paid first ( money borrowed from number of sources including banks. They have the first claim to the project organization’s assets should the project fail and the company goes into liquidation. 
        Mezzanine debt- comes from the project organization’s equity holders.  Involves a schedule f loan repayments and interest payments at a predetermined rate.  Considered secondary to the senior debt.  Higher risk and higher interest rates.
        Secured vs. unsecured debt – secured against the companies assets and has lower interest rates in contrast to the unsecured debt. More risk to the lenders as it is only given to the project and its assets. Should the project fail the lenders have no way of securing their money.
        Cost of Financing
        Cost of equity- is the dividends paid to shareholders plus any estimate of the equity’s capital growth. The cost of equity is usually calculated using the capital asset pricing model (CAPM). (More can be learned about this model in any finance textbook.)
        Cost of debt- is the cost of debt financing, or the interest paid on the money borrowed. While the cost of equity is payable out of untaxed income, the cost of debt is payable out of taxed income.
        Cost of capital = Ratio of equity * Cost of equity + Ratio of debt * Cost of debt
        The cost of capital is the average cost of various forms of finance used by the project organization

        Expected Monetary Value - is also the most appropriate financial measure when measuring future uncertainty, or when multiple project outcomes are possible, each with a different cost and schedule. It is defined as the summation of the value of each outcome in dollars ($), weighted by the probability of that outcome. For example, consider a project that needs to be redesigned, and assume that the new approach involves some risk to accomplish this goal. One possible monetary outcome is $200,000 with a 40 percent probability of achieving this outcome, while anothermonetary outcome is $150,000 with a 60 percent probability of occurrence. The EMV of this project is

EMV = $200,00 0.4 + $150,000 0.6 = $170,000

What is the expected monetary value?


        What is the expected monetary value?
It is a financial measure used when measuring future uncertainty. It is defined as the summation of the value of each outcome in dollars ($), weighted by the probability of that outcome. For example, consider a project that needs to be redesigned, and assume that the new approach involves some risk to accomplish this goal. One possible monetary outcome is $200,000 with a 40 percent probability of achieving this outcome, while another monetary outcome is $150,000 with a 60 percent probability of occurrence. The EMV of this project is
        EMV = $200,00 0.4 + $150,000 0.6 = $170,000
        Use of Functions
        Critical Success Factor

A project’s net return and risks are the two pivotal factors that determine
its ultimate success and the value it delivers. In the absence of thorough
risk assessment and proactive risk management at the valuation and
implementation stages, project success cannot be achieved.18
A simple example will serve to illustrate the importance of risk assessment
and risk management to project value. Let us consider a project
proposal with an expected gross return of $200,000 over five years, with
a cost of $150,000 to implement. Without factoring any risks into the
equation, the net return is $50,000 ($200,000 $150,000). However,
risks to a project are inevitable, and this hypothetical project is no exception.
Therefore, let us assume the following risks and their impact on this
project:
1. There exists some uncertainty in the project requirements and
there is 40 percent probability that development efforts will cost
an additional $30,000. This will reduce the net return by $12,000
($30,000 0.4).
2. The project team believes that there is 20 percent likelihood that
additional sales force training may be required. This will likely
reduce the net return by $10,000 ($50,000 0.2).
3. There is a 10 percent probability that the entire project could fail or be
superseded by other projects because of technological uncertainties
or a strategic change in direction. This implies a net reduction of
$5,000 ($50,000 0.1) in the project’s expected net return.
When the impact of all of the above risks is factored into account, the
reduction in the net return to the project is $27,000 ($12,000 + $10,000
+ $5,000), and the overall net return from the project now is $23,000
($50,000 $27,000). The project is now considerably less attractive than
it originally appeared.

Value Management


        Concept of Value Management




·        Value Planning is a value study that occurs during the early
design or development stages of a project life cycle, before a preferred
alternative is selected. Value planning typically focuses on identifying
project objectives and developing functional components and general
approaches to meeting those objectives. It ensures that value is planned
into the project from its inception by addressing and ranking stakeholders’
requirements in order of importance. This makes it extremely important
for project team members to know who those stakeholders are. Value
planning should be used for most projects.
        Value Engineering is the title given to value techniques
applied during the design or engineering phases of a project. This value
study is conducted after the design alternatives have been developed,
and perhaps before a preferred alternative has been selected. Because
more information becomes available about the project as the project
design process progresses, VE studies are much more detailed than
VP studies.6 Value engineering employs many techniques that focus on
quantifying and comparing—it investigates, analyzes, compares, and
selects among various options that will meet the value requirements of
stakeholders.
        Value Analysis refers to value techniques that are applied
retrospectively. Value analysis analyzes or audits a project’s performance
by comparing a completed, or nearly completed, design or project against
predetermined objectives. Value analysis studies are normally conducted
during the post-manufacture/construction period, when a project is fully
operational. In addition, the term ‘‘VA’’ can be applied to the analysis of
nonmanufacture/construction-related procedures and processes, such as studies of organizational structure, or procurement procedures.

0

Estimating Work Duration


  1. Determine the availability of the resources
  2. Show the availability as a percentage of the effort required to achieve the work package
  3. Duration = (Effort/Productivity)/Availability
        If effort is in # of hours, the duration will be in # of hours
        To have duration in days, divide the value calculated above by the number of working hours per day
  1. Cost = Duration* Unit cost
        Cost = (Effort/Productivity ) * Unit cost
        Determine duration as per number 3 above
        Unit  cost : e.g. $40/hour



Determining Durations of Work packages
        PERT of each work package:
              
        PERT of the entire project is the sum of the PERTs of all the activities on the critical path
        Standard Deviation of a work package:
              
PERT, Sigma and probabilities
        50% probability that a task’s duration equals its PERT
        68% probability that a task’s duration is between ( PERT + 1 * Sigma) and (PERT – 1 * sigma)
        95% probability that a task’s duration is between ( PERT + 2 * Sigma) and (PERT – 2 * sigma)

Project Needs assessment and prioritizing the Needs

Depending on the project Time, Cost or Quality might have a higher importance


Needs identification is the first stage of the project life cycle.

During the project needs assessment phase, the needs of all project stakeholders must be clearly defined, with no ambiguity. At this juncture, it is not important to determine whether the project can satisfy all these needs, or to worry about the best approaches to meet them. All we are attempting to do during this stage is to identify the various and often-conflicting expectations of the different stakeholders. When the needs of the project are clearly understood and defined, several benefits can accrue:

        After organization’s needs and requirements are identified and analyzed, SOW (Statement of Work) can be defined. It will then trigger the initiation of a project. The following items should be included in the SOW document
        Summary of Work Requested
        Major Deliverables
        Major Milestones

        Project costs include:
        Direct , indirect
        Fixed, variable
        Recurring non-recurring
        Project cost estimates has great value in project cost management; based on the estimates, everything else can be determined
        The costliest ways to estimate cost is bottom-up, followed by the definitive method
0

Tuesday, July 16, 2013

Value Management


CONCEPT OF VALUE

The concept of value can be defined as the relationship between satisfying
an organization’s many conflicting needs and the resources required
to meet those needs.
Value can be added to projects in several ways. These include providing
greater levels of client satisfaction, maintaining acceptable levels of
satisfaction while lowering resource expenditures, or some combination of
the two. It is also possible to improve value by simultaneously increasing
satisfaction and resources, provided that satisfaction increases more than
the resources used to achieve it.
When managing projects for value, five fundamental concepts must be
embraced.


Concept #1: Projects derive their value from the benefits the organization
accrues by achieving its stated goals—Remember that projects are typically
initiated as a perceived solution to a goal, need, or opportunity.
Thus, when we want to determine the degree to which a project is being
managed for ‘‘value,’’ it is critical to first ensure that the project falls
in line with organizational goals. Projects that are being run counter to
a firm’s stated goals (e.g., customer satisfaction, commercial success, or
improving health and safety) already fail the first test of value.
Concept #2: Projects can be viewed as investments made by management
Any investment comes with an expected return for the risk undertaken, and projects are no exception. Because they consume
resources and time, they are expected to yield acceptable returns, based
on internal requirements, along with associated benefits.
Concept #3: Project investors and sponsors tolerate risk—There are
inherent risks in projects, because there is considerable uncertainty
surrounding their outcomes. These risks may be technical (‘‘Does the
technology that is driving the project work?’’), they may be commercial
(‘‘Will the project succeed in the marketplace?’’), they may involve health
and safety issues (‘‘Can we manage the project within appropriate safety
parameters?’’), or some combination of all of the above. Accepting these
risks is recognition that each project is a unique endeavor with unique
unknowns. Investors may not be able to manage these risks, but they
do tolerate them because the potential rewards may far outweigh the
negative impact.
Concept #4: Project value is related to investment and risks
This fourth concept defines project value as a function of the resources
committed (investment made) and the extent of risks taken. Goodpasture
puts it this way: ‘‘The traditional investment equation of ‘total return
equals principal plus gain’ is transformed into the project equation of
‘project value is delivered from resources committed and risks taken.’’’3
Using these terms, we can see that value will always walk a narrow
line between expected return on investment and risk. When the equation
gets out of balance; that is, when the perceptions of the organization are
that the expected return cannot make up for excessive levels of risk, the
project ceases to produce value. The implication of this concept is that different
projects require different levels of investment with varying levels
of risk. Consequently, the value delivered by each of these projects will
also vary.

Concept #5: Value is a balance among the three key project elements:
performance, resource usage, and risk—Again, if we employ a ‘‘ledger’’
mindset, we can add up the credit column to include drawbacks such
as expenditure (resource usage) and risk accepted. Balanced against
these ‘‘negatives’’ is the company’s expectation of project performance
and positive outcomes. Naturally, the higher the expected performance of
the project, the greater the resource usage and risk a company is willing
to commit.

For most project organizations, the objective measure of value is in
monetary terms. This is because projects consume time, and the longer
it takes to complete the project, the less valuable the money spent.
Therefore, when evaluating a project’s value, the concept of the time
value of money should be taken into account. In addition, monetary
measures allow project managers to acknowledge the future uncertainty
of outcomes by evaluating the financial impact of risk events.
The measures of net present value (NPV), economic value add, and
expected monetary value (EMV) take both of these factors into account.
Net present value, is significant in
that successful projects have a positive NPV over their life cycle. Both
NPV and economic value add employ the discounted cash flow concept;
however, economic value add is a financial measure of project performance
after the project becomes operational. It is defined as the difference between the present value of after-tax earnings from the project and the
benefits from the next-best investment alternative. The logic underlying
economic value add is that if the projected after-tax earnings are less than
the cost of the capital the project consumes, then some other, less-risky
investment alternative may be more attractive. Expected monetary value is also the most appropriate financial measure
when measuring future uncertainty, or when multiple project
outcomes are possible, each with a different cost and schedule. It is
defined as the summation of the value of each outcome in dollars ($),
weighted by the probability of that outcome. For example, consider a
project that needs to be redesigned, and assume that the new approach
involves some risk to accomplish this goal. One possible monetary outcome
is $200,000 with a 40 percent probability of achieving this outcome,
while anothermonetary outcome is $150,000 with a 60 percent probability
of occurrence. The EMV of this project is
EMV = $200,00 0.4 + $150,000 0.6 = $170,000
If the NPV for this project is also positive, and if all other considerations
are equal, it is worth taking the risk of adopting the new approach to
redesign this project.

Key Principles of VM
The value management approach hinges on three key principles4:
1. An unending quest for enhancing value for the organization, establishing
metrics or estimates of value, and monitoring and controlling
them
2. A focus on clear definition of objectives and identification of targets
before seeking solutions
3. A focus on function, pivotal to maximizing those outcomes that are
innovative, meaningful, and practical

THE VM PROCESS
The detailed VM process and the typical terms used at different stages
of a project are illustrated in the Figure 8.3. Because the elements of
the figure are straightforward, we will focus our discussion of the process
from a strategic perspective. The elements of value management can be
grouped into five major categories:14
Needs assessment—This phase is concerned with arriving at a shared
understanding of the needs of various project stakeholders, the critical
success factors with the expected benefits defined qualitatively,
and the key performance indicators of time, cost, quality, or functionality,
defined through quantitative measures.
Idea generation—In this phase, the cross-functional team focuses
on generating creative and innovative alternatives to complete the
project.
Detailed evaluation—During this phase, the alternatives generated
in the previous phase are evaluated in detail in terms of their feasibility,
achievability, and potential contribution to expected project
benefits. At this stage, modifying alternatives to develop additional
options is also considered.
Optimum choice—This phase prioritizes the various alternatives and
selects the best alternative.
Feedback and control—This phase is the formal evaluation and
control process with feedback loops to improve the overallVMprocess.
During this phase, VM practitioners and users must obtain feedback
on its performance to ascertain whether the expected improvement
in value was realized, and to generate other good ideas that can be
adopted and implemented. During the feedback process, factors to
be assessed include the stakeholders’ judgment, involvement, and
support; the system’s appropriateness, use, and effectiveness; and
change management. Actions that can emerge from the feedback
stage include changes to personnel, approach, or the system, and
even repeating the VM exercise as a whole.