Introduction to Risk Management October 2014 Technology, Engineering and Management Department of Chemical Engineering Sue Lounsbury, PEng, MBA, PMP Queens University – Mech Eng 82 University of Ottawa – MBA 99 Member of PEO and PMI 30 plus years of experience Professional field – Strategic planning and project management with focus on risk management Professional career includes: Multiple construction projects in the Oil and Gas sector Project management for Training facilities for CATSA Project management for Long term care centres and hospitals Ottawa Light Rail Transit Strategic planning and risk management for Chanceries in Moscow, London and Paris for DFAIT Currently working on the renovations of Parliament Hill What would Project Management be without Dilbert? Why do so many avoid dealing with Project Risk Management? Perceived as difficult to do Tends to be the “bad news” part of projects Results are not always tangible Often not a priority for senior management Often done once on a project and then “shelved” in a nice binder and forgotten about Projects are not often supplied with the resources to deal with Risk Risk Rarely does everything happen as planned Uncertain events or conditions can have positive or negative effects on the project Risks are things that are in the future and have < 100% chance of occurring while Issues are in the present and have a 100% chance of occurring Generally expressed in terms of impact/ probability and cost Risk tolerance is the degree of risk that an organization can withstand in terms of financial impact and or damage to reputation Failure to understand the risks of a project generally leads to project failure Example of a Project Lacking in Risk Planning A result of a poor risk assessment program Risks and Project life cycle Risk Management throughout the Project Life Cycle Monitoring and Control Project Initiation Continuous Risk Management Project Execution Monitor and Control Project Planning Project Controls Risk management is not something that is bolted on at the end of a project – need to avoid a silo mentality It is critical at all stages and requires continuous monitoring and control Needs to be scaled to the size of the project Needs to be fully integrated into the project Should be a standing agenda item on at project meetings No surprises leads to a successful project! What is on the Web about Risk? Unlimited supply of information on risk management on the web and can be a real challenge to wade your way through it. (Google results –75 million hits for the words “risk management”) There are a few key guidelines and standards that stick out: PMI PMBOK Guide (US and Canada) PMI Practise Standard for Project Risk Management Prince 2 (British) AS NZS 4360: 2004 risk management standard ISO 31000 (very new!) Project Risk Analysis and Management Guide (PRAM) RiskIT (targeted at IT projects) BABok (targeted at accounting) PMI® PMBok® Guide - 6 processes Inputs Outputs •Risk Identification •Risk Qualification •Risk Quantitative Analysis •Risk response development •Risk response control •Risk Identification and prioritization •Risk management plan •Corrective action PMI’s approach is the generally accepted with in the profession in Canada and the US Globally applicable Risk IT® Risk IT is an excellent tool focused on IT risk Uses 3 domains with goals and metrics Risk governance Risk evaluation Risk response Very detailed tool ISO 31000 Introduced in 2009 International risk management standard Seen as a replacement for the AS NZS 4360 Adapted by CSA Canada ISO 31000 www.irr-neram.ca/pdf_files/ISO%2031000.pdf Risk Management Plan Detail how risk management will be structured and executed for the project Use to provide management with an overview of how risks addressed Can be a simple one page document or can be very detailed– usually scaled to the project and the level of risks The lower the risk tolerance of the organization the greater the need for a detailed plan Failure to plan is planning for failure! Example Contents for a Plan Methodology: Roles and Responsibilities What approach will be used What assessment tools will be utilized Risk Response How risks will be prioritized What the assessment levels will be set at Quantitative What approach will be used for risk identification (Brainstorm, interview SAE, checklists) Risk register format Qualitative At what milestones will risks be identified How often will risk reviews be completed Risk Identification How will risk be funded – mitigation or occurrence Risk Contingency – what are the authority levels for spending it Scheduling Ensure you have the right people at the table with the right levels of authority Governance Budgeting What approach will be used What tools will be used What will be the response strategies Monitoring and Control Risk reviews, communications Lessons learned Paying for Risk Well run projects usually identify part of the budget to cover risk Over and above the normal contingency carried on projects for site conditions, client direction, design issues etc. The funds are for either: Reducing impact of a risk by taking some action (eg hiring an additional inspector) covering the cost of a residual risk if it occurs Access to this money is usually at a higher level within the management. Amounts range depending on the risk tolerance level of the organization PWGSC carries a large level of risk; very little risk tolerance within its culture Risk Identification Done as early as possible in a project Done often in a project Start at a high level and move to a more detailed approach once more project information is available Bring in as many perspectives as you can Identify opportunities as well as threats Describe risks carefully –focus on cause and impact Evaluate the impact on your projects objectives For easier identification and management of risks divide them into categories. As examples: schedule slippage is not a risk – it is an outcome Technical External Project Management ( internal team) Organizational Make sure all assumptions are clearly stated Risk Breakdown Structure – (looks like a WBS!) Technical External Organizational Project Management Requirements Regulatory (JHA) Project authorities Estimating Technology Subcontractors/ supliers Governance Planning Complexity an/or interfaces Market conditions Resources Controlling Performance Customers Dependencies Communications Reliability Weather Funding Quality Site restrictions Can be used for reports, Software development or anything that fits a definition of a project. The following is an example for a report on a new business opportunity Research Hypothesis Report preparation Report delivery Requirements Planning Report presentation Previous studies Designing drawings rehearsals interviews Testing/ modeling presentation Question Site visit estimate Printing/ binding delivery Economic modeling Industry specific: Pharmaceutical Development Clinical Manufacturing Regulatory Organizational Commercial Project Management Toxicity Complexity of process Local Regulatory atmosphere Resource availability Target population Resources Efficacy Stability International requirements Governance Profitability Technical expertise Drug interactions Scale – up Communications Marketing Schedule constraints Database systems Investment required Budget constraints Oil and Gas project example Technical Management Commercial Requirements Strategy Contractual Technology Organization Financial Interfaces Project Management Regulatory Performance Resources Agreements Reliability Communications Reputation Quality Health and Safety Safety Wellington Renovation Project Design Project Environment Organization / Management Contract/ Tender and Award Construction / Commissioning / BCC Heritage Material costs Governance Contracting requirements Schedule constraints Site conditions Labour availability Project team Approval process Site restrictions Security Public attitude Funding Contractibility Safety Technology Competing projects commissioning Risk Register Tool used to capture the identified risks, their impacts and probability and the steps that need to be taken Used as an interactive tool to monitor progress of risk responses Assigns responsibility for risk actions Example risk sheet Wellington PROJECT: RISK # RISK OWNER: DATE REV # DESCRIPTION: LIKELIHOOD CATEGORY RISK NAME: H M L L M H IMPACT Score RANK 4 LIKELIHOOD IMPACT @ risk K$/m o. RESERVE COST IMPACT 0 SCHEDULE IMPACT 0 QUALITY IMPACT PUBLIC/POLITICAL IMPACT PAA RESPONSE # ACTION WHO CLOSURE WHEN Organization / Management Open Unclear governance and approval structure Design Open Security design Design Open Lessons learned from La accoustics and FFE. Benefitting from lessons learned THIS Prom with regard to IS AN OPPORTUNITY - this should apply to lessons learned MM/ISS; design at LaProm and at RCR 3600 Delays to completing the design leading to delays in over all schedule H H H 9 Reduce 9.7 cost savings could be made by avoiding rework H H M 8 Reject develop enhance goverance tools and decision making tools H M M 7 Thierry Montpetit M M M 5 thierry Montpetit Mod H H M 7 Thierry Montpetit Easy Imminent H L M 6 Thierry Montpetit Diff clearly lay out security requirements in the contract document- try to remove the 0 security requirements from stage 1, nothing done for stage 2 at this time L L L 1 Henri Behamdouni Easy Distant build a mock up for design and for constructability M M L 4 Henri Behamdouni Mod Mid Term M M M 5 Thierry Montpetit Mod Overdue M M M 5 Thierry Montpetit Diff Imminent H M H 8 Thierry Montpetit Diff Overdue M M L 4 Thierry Montpetit Diff Imminent M L M 4 Matthew Delean Mod Overdue present options to the Senate and HoC to 2430 establish an implementation strategy for 1800 the security systems in the building Application of lessons learned impacting the MM/ISS, -$960 information for accoustics, MM/ISS and delays of up to 2 years if the funds are not realized and GC method H of contracting required H M 8 Reduce 13.0 Contract / Tender Open & Award Security clearance levels cause delay security clearance requirements will become more restrictive; impacts the trades by restricting who can enter and add delays getting workers on the site, delays. If access to the work site is restricted for any reason, unplanned shutdowns and M there could be delays in construction that add cost to the restricted hours of work project. This includes proposed enhanced security clearance requirements currently being developed H M 7 Reduce 1.44 $960 Construction / Commissioning / Open BCC not meeting the STC Challanging STC rating is difficult to meet - requires extensive delays due to inspection requirement on the offices quality checks restrictions H M H 7 Reduce 2.9 240 Contract/ Tender Open and Award Ability to issue the 4 trade RPCD may not approve the idea to have PWGSC issue 4 packages trade packages with PCL as the constructor need these packages to recover schedule loss H M H 7 Reduce 2.1 Wellington team to work with PCL to 0 address the issues relating to Div 1 and impact on contracts Contract/ Tender Open and Award RPCD does not support using CM delays getting the project back on H schedule H M 7 Reduce 3.8 0 Project Environment Open Construction / Commissioning / Open BCC Design Open RPCD is unfamiliar with using CM with a GMP Negative perception of project Project could be viewed as MPs spending money on themselves rather than an infrastructure project that benefits the public. Lack of communication, competing priorities for funding Update - project did receive partial funding in April 2010 through the MC Schedule slippage Schedule slippage increases greater than current 6 month delay Changing Technology End Date 31-Mar-09 22-Aug-10 01-Aug-08 27-Nov-14 31-Oct-15 22-Aug-16 01-Dec-08 22-Aug-09 31-Oct-08 22-Aug-16 Overdue 0 Furniture MC process restricts access to funding - limiting contracting ability. Puts the project at risk of being cancelled Open Overdue Start Date setting up workshops to capture -1.92 Lack of Available funds Organization / Management 0 Owner Proximity 4.32 Manageability Reduce Score 9 Cost H Schedule H Type Probability significant delays could occur due to lack of understanding of H decision making process on complicated issues Impact note: Additional responses highlighted on individual risk sheets Total Cost budget impact (k$) Approver may be known but process of gaining necessary approvals is unknown Procedures change often. Process of gaining approvals is unclear. Lack of access to decision makers due to organizational hierarcy. This has been elevated - governance recognized as a central issue and risk To date a security consultant has not been assigned to the project. This will be a critical function to allow the design to move forward for the base Building and Fit up. Update: Services have been tendered and a proponent is waiting on Contracting to give the Green Light Score Description Cost Title Schedule Status Probability RBS schedule impact (months) Example risk register move to CM approach to allow multiple 540 smaller contracts to be awarded with the available funding 1000 piggy back on the work underway at West Block Exploit business case - forward plan $0 promote fully funding project as a positive way to create Canadian jobs Negative publicity;completion of M project may be delayed M H 6 Accept 0.58 increased time H M M 6 Reduce 3.8 640 break out smaller packages to advance some work Technology will likely change between now and 2015; design assumptions is based on what is currently available; Decisions may be made too late; Introduction of new technology may supercede what has been delays to design; delays to M done; decisions may be delayed to incorporate best possible schedule technical solutions. L M 5 Reduce 1.08 $1,800 establish a design process that allow a late selection on technology 50000 0 Imminent Qualitative Risk Analysis Ranking of the risks relative to each other, based on the impact on the project Most simply: High Medium Low Agree upon prior to assessing risks Assessed prior to taking any risk response and again after to help determine any residual Reassess throughout the project as the it evolves and external conditions change Risks are typically defined by their Probability of Occurrence and the Impact they would have on the project if they occurred. An easy approach that most understand Consistency in applying the concepts is key in identifying the critical risks Risk Qualification Risk Scoring PROBABILITY SCALE Low 1% to 20% Event is unlikely to happen Medium 20% - 67% Event may reasonably occur High 67%-99% Event is likely to occur Medium >1 week and <4 weeks >100 k$, < 500 k$ could impact functionality signficiant neg press coverage High greater than 4 weeks Greater than 500 k$ does not meet requirements severe impact to reputation IMPACT SCALES AND TYPES Low less than 1 wk less than 100 k$ minor issues minor impact Schedule costs Quality political IMPACT Probability and Impact Scoring Low 4 3 1 High Medium low PROBABILITY Medium 7 5 3 High 9 7 4 KEY Up to 3 low 4 to 6 med 7 to 9 high 5 x 5 matrix Im pact Likelihood Low Medium-Low Medium Medium-High High High 6 7 8 9 10 Medium -High 5 6 7 8 9 Medium 4 5 6 7 8 Medium -Low 3 4 5 6 7 Low 2 3 4 5 6 NB: 2 l owest combined score (impact + l ikelihood), 10 hi ghest combined score (impa ct + l ikelihood) Heat maps http://www.tbs-sct.gc.ca/tbs-sct/rm-gr/guides/gcrp-gepro03-eng.asp PWGSC corporate risk approach Project Risk based on objective relative weighting objective cost time scope relative weight 15% 60% 25% name of risk risk type political pressure external STC rating not met technical organzational funding not approved Project objectives weighted independently from the risks prob 4 7 9 cost 2 4 6 impact time 8 6 8 scope 0 4 3 cost 8 28 54 Risk Score time 32 42 72 Risk score calculated by multiplying probability by impact scope 0 28 27 total score 20.4 36.4 58.05 Total score is the sum of the risk score x the objective relative weight Alternate ways of communicating Risks Risk # Risk risk 0 risk 1 Inflation Unforeseen building conditions M L M L 4 1 risk 11 risk 12 risk 14 Change in Key personnel Changes in Government Policy Stakeholder responsibility for Project Outcomes Undefined Security requirement Dependency on other projects M L H M M M 4 2 6 M H L H 2 9 H L M L 6 1 risk 38 risk 4 Changing technology Undefined Emergency Services Requirement Loss of Corporate Knowledge Lack of PWGSC resources M M M L 4 4 risk 41 risk 42 Heritage restoration Access to site L H L M 1 6 risk 43 risk 45 risk 46 Principal consultant’s shortage Lengthy approval process Expanding shale L H L M L L 2 3 1 risk 7 risk 9 Sound proofing Lack of mobilization Space M H L M 2 6 risk 15 risk 16 risk 27 risk 33 probability impact score Quantitative Risk Analysis A more sophisticated approach to risk analysis Provides numerical analysis of the impact of all risk simultaneously on top project objectives Provide “what if” scenario opportunities Helps to more accurately identify risk that are high priority and where risk response can have the greatest impact Often is used to help determine contingency Software is used for this approach Pertmaster (Primavera) @ Risk Crystal Ball ( now owned by Oracle) Monte Carlo simulation approach Based on optimistic, realistic and pessimistic views and can be set under a number of different distribution models including triangular, Beta, uniform or Normal distribution Can provide correlation between schedule elements that are impacted by the same forces Outputs Outputs provide histograms showing the certainty of the project objective (schedule or budget) and the likelihood of delivery the project at the expected levels Schedule models help define what items critical even if they are not on the critical path Allows contingencies to be established Tornado diagrams help to illustrate the items with the highest level or correlation and therefore what is driving project uncertainty Output example: Histogram Example of output: Tornado Other Tools Probability Analysis Delphi Method Monte Carlo Decision Tree Analysis Utility Theory Decision Theory Risk Response Reduce Share Avoid Risk/ opportunity Transfer Expoit Enhance Finance (Accept) Determine root cause Avoid, mitigate or transfer where possible Develop contingency plans for significant risks Document and review regularly Risk Triggers Events or actions that move a risk from a probability of <100% Important to be able to identify what the triggers are for risks where possible Once triggered they are no longer a risk – they now are issues that will need to be addressed Monitoring and Controlling Ongoing risk monitoring is one of the hardest parts of managing risks Involve as many stakeholder and SME as possible Have separate reviews for risk on large projects or incorporate in team meetings on smaller ones Timing for reviews: Report risks Key milestones At least once per year After trigger points occur on top risks Report top 10 risks monthly Create a risk dashboard or one pager Lever Lessons Learned Run lesson learned sessions after key milestones or phases in the project Do it all over again! Repeat the cycle Meaningful times in the project Key milestones Not less than once per year At times of significant change in the project – between end of design and start of constructions Can do mini risk reviews on specific project element during the project to assist in decision making Conclusion Make Risk a part of your project just like cost and schedule Make sure you understand the risk tolerance of your organization Tailor the risk plan to fit the project Get the appropriate level of resources you need to match Make use of the appropriate tools that are available Communicate, communicate, communicate! Get it on as a standing item on the team meetings agenda Reading opportunities Enterprise Risk Management – Integrated framework Project and Program Risk Management – A guide to managing project risks and opportunities Max Wideman, Editor, Project Management Instit A Guide to project Management Body of Knowledge – PMBOK 4th Edition Identifying and Managing Project Risk – Essential Tools for failure proofing Your project www.theiia.org/iia/download.cfm?file=9229 Tom Kendrick Risk and Decision Analysis in Projects ( 2nd ed) – John Schuyler Another video in closing Project Scenario: Alice in Wonderland It almost time for the Queens Engineering Science Formal, listed as one of the Ten Best Black Tie events in North America Science Formal is a massive student run project with a $80 000 budget, 35 000 hours of construction, 600 students and a year's worth of careful planning to produce. Your project is head organizer of this Formal and you need a Risk Management Plan: Build a Risk Breakdown Structure Brainstorm risks Rank risks (Probability of occurrence, impact cost, schedule) Develop risk response for High risks Photos from past Formals