Skip to main content

Developing Risk Management Plan

Developing an effective Risk Management Plan can help keep small issues from developing into emergencies. Different types of Risk Management Plans can deal with calculating the probability of an event, and how that event might impact you, what the risks are with certain ventures and how to mitigate the problems associated with those risks. Having a plan may help you deal with adverse situations when they arise and, hopefully, head them off before they arise.

1.      Understand how Risk Management works. Risk is the effect (positive or negative) of an event or series of events that take place in one or several locations. It is computed from the probability of the event becoming an issue and the impact it would have (See Risk = Probability X Impact). Various factors should be identified in order to analyze risk, including:
·         Event: What could happen?
·         Probability: How likely is it to happen?
·         Impact: How bad will it be if it happens?
·         Mitigation: How can you reduce the Probability (and by how much)?
·         Contingency: How can you reduce the Impact (and by how much)?
·         Reduction = Mitigation X Contingency
·         Exposure = Risk – Reduction

ü  After you identify the above, the result will be what’s called Exposure. This is the amount of risk you simply can’t avoid. Exposure may also be referred to as Threat, Liability or Severity, but they pretty much mean the same thing. It will be used to help determine if the planned activity should take place.

ü  This is often a simple cost vs. benefits formula. You might use these elements to determine if the risk of implementing the change is higher or lower than the risk of not implementing the change.

ü  Assumed Risk. If you decide to proceed (sometimes there is no choice, e.g. federally mandated changes) then your Exposure becomes what is known as Assumed Risk. In some environments, Assumed Risk is reduced to a dollar value which is then used to calculate the profitability of the end product.

2.    Define your project. In this article, let's pretend you are responsible for a computer system that provides important (but not life-critical) information to some large population. The main computer on which this system resides is old and needs to be replaced. Your task is to develop a Risk Management Plan for the migration. This will be a simplified model where Risk and Impact are listed as High, Medium or Low (that is very common especially in Project Management).

3.    Get input from others. Brainstorm on risks. Get several people together that are familiar with the project and ask for input on what could happen, how to help prevent it, and what to do if it does happen. Take a lot of notes! You will use the output of this very important session several times during the following steps. Try to keep an open mind about ideas. "Out of the box" thinking is good, but do keep control of the session. It needs to stay focused and on target.

4.    Identify the consequences of each risk. From your brainstorming session, you gathered information about what would happen if risks materialized. Associate each risk with the consequences arrived at during that session. Be as specific as possible with each one. "Project Delay" is not as desirable as "Project will be delayed by 13 days." If there is a dollar value, list it; just saying "Over Budget" is too general.

5.    Eliminate irrelevant issues. If you’re moving, for example, a car dealership’s computer system, then threats such as nuclear war, plague pandemic or killer asteroids are pretty much things that will disrupt the project. There’s nothing you can do to plan for them or to lessen the impact. You might keep them in mind, but don’t put that kind of thing on your risk plan.

6.    List all identified risk elements. You don’t need to put them in any order just yet. Just list them one-by-one.

7.    Assign probability. For each risk element on your list, determine if the likelihood of it actually materializing is High, Medium or Low. If you absolutely have to use numbers, then figure Probability on a scale from 0.00 to 1.00. 0.01 to 0.33 = Low, 0.34 to 0.66 = Medium, 0.67 to 1.00 = High.

                 Note: If the probability of an event occurring is zero, then it will be removed from consideration. There’s no reason to consider things that simply cannot happen (enraged T-Rex eats the computer).

8.      Assign impact. In general, assign Impact as High, Medium or Low based on some pre-established guidelines. If you absolutely have to use numbers, then figure Impact on a scale from 0.00 to 1.00 as follows: 0.01 to 0.33 = Low, 0.34 – 066 = Medium, 0.67 – 1.00 = High.

            Note: If the impact of an event is zero, it should not be listed. There’s no reason to consider things that are irrelevant, regardless of the probability (my dog ate dinner).

9.      Determine risk for the element. Often, a table is used for this. If you have used the Low, Medium and High values for Probability and Impact, the top table is most useful. If you have used numeric values, you will need to consider a bit more complex rating system similar to the second table here. It is important to note that there is no universal formula for combining Probability and Impact; that will vary between people and projects. This is only an example (albeit a real-life one):

                 Be flexible in analysis. Sometimes it may be appropriate to switch back and forth between the L-M-H designations and numeric designations. You might use a table similar to the one below.

2.    Rank the risks. List all the elements you have identified from the highest risk to the lowest risk
.
3.    Compute the total risk: Here is where numbers will help you. In Table 6, you have 7 risks assigned as H, H, M, M, M, L, and L. This can translate to 0.8, 0.8, 0.5, 0.5, 0.5, 0.2 and 0.2, from Table 5. The average of the total risk is then 0.5 and this translates to Medium.

4.    Develop mitigation strategies. Mitigation is designed to reduce the probability that a risk will materialize. Normally you will only do this for High and Medium elements. You might want to mitigate low risk items, but certainly address the other ones first. For example, if one of your risk elements is that there could be a delay in delivery of critical parts, you might mitigate the risk by ordering early in the project.

5.    Develop contingency plans. Contingency is designed to reduce the impact if a risk does materialize. Again, you will usually only develop contingencies for High and Medium elements. For example, if the critical parts you need do not arrive on time, you might have to use old, existing parts while you’re waiting for the new ones.

6.    Analyze the effectiveness of strategies. How much have you reduced the Probability and Impact? Evaluate your Contingency and Mitigation strategies and reassign Effective Ratings to your risks.

7.    Compute your effective risk. Now your 7 risks are M, M, M, L, L, L and L, which translate to 0.5, 0.5, 0.5, 0.2, 0.2, 0.2 and 0.2. This gives an average risk of 0.329. Looking at Table 5, we see that the overall risk is now categorized as Low. Originally the Risk was Medium (0.5). After management strategies have been added, your Exposure is Low (0.329). That means you have achieved a 34.2% reduction in Risk through Mitigation and Contingency. Not bad!


8.    Monitor your risks. Now that you know what your risks are, you need to determine how you’ll know if they materialize so you’ll know when and if you should put your contingencies in place. This is done by identifying Risk Cues. Do this for each one of your High and Medium risk elements. Then, as your project progresses, you will be able to determine if a risk element has become an issue. If you don’t know these cues, it is very possible a risk could silently materialize and affect the project, even if you have good contingencies in place.

Comments

Popular posts from this blog

Black swan

A  black swan event  is an incident that occurs randomly and unexpectedly and has wide-spread ramifications. The event is usually followed with reflection and a flawed rationalization that it was inevitable. The phrase illustrates the frailty of inductive reasoning and the danger of making sweeping generalizations from limited observations. The term came from the idea that if a man saw a thousand swans and they were all white, he might logically conclude that all swans are white. The flaw in his logic is that even when the premises are true, the conclusion can still be false. In other words, just because the man has never seen a black swan, it does not mean they do not exist. As Dutch explorers discovered in 1697, black swans are simply outliers -- rare birds, unknown to Europeans until Willem de Vlamingh and his crew visited Australia. Statistician Nassim Nicholas Taleb uses the phrase black swan as a metaphor for how humans deal with unpredictable events in his 2007...

A Graphics Processing Unit (GPU)

A graphics processing unit (GPU) is a computer chip that performs rapid mathematical calculations, primarily for the purpose of rendering images. A GPU may be found integrated with a central processing unit (CPU) on the same circuit, on a graphics card or in the motherboard of a personal computer or server. In the early days of computing, the CPU performed these calculations. As more graphics-intensive applications such as AutoCAD were developed; however, their demands put strain on the CPU and degraded performance. GPUs came about as a way to offload those tasks from CPUs, freeing up their processing power. NVIDIA, AMD, Intel and ARM are some of the major players in the GPU market. GPU vs. CPU A graphics processing unit is able to render images more quickly than a central processing unit because of its parallel processing architecture, which allows it to perform multiple calculations at the same time. A single CPU does not have this capability, although multi...

6G (sixth-generation wireless)

6G (sixth-generation wireless) is the successor to 5G cellular technology. 6G networks will be able to use higher frequencies than 5G networks and provide substantially higher capacity and much lower latency. One of the goals of the 6G Internet will be to support one micro-second latency communications, representing 1,000 times faster -- or 1/1000th the latency -- than one millisecond throughput. The 6G technology market is expected to facilitate large improvements in the areas of imaging, presence technology and location awareness. Working in conjunction with AI, the computational infrastructure of 6G will be able to autonomously determine the best location for computing to occur; this includes decisions about data storage, processing and sharing.  Advantages of 6G over 5G 6G is expected to support 1 terabyte per second (Tbps) speeds. This level of capacity and latency will be unprecedented and wi...