ENGM 116 Leadership and the Management of Project Risk Assignment Sample

Introduction to Leadership and the Management of Project Risk, Quality and People Assignment Sample

TASK 1: Risk Identification and Management

1.1 Risk 1: Quality Risk from Cost-Cutting Due to Chinese Competition

1.1.1 Risk Specification

Condition: If First Solar continues to reduce manufacturing costs aggressively to remain competitive. This is with low-cost Chinese photovoltaic (PV) panel manufacturers which have been supported by substantial government subsidies,

Consequence: Then the company may compromise the quality and long-term reliability of its solar modules. This deterioration in quality could lead to reduced system performance. It also increased failure rates with negative customer experiences and a long-term decline in brand reputation and repeat business.

Probability & Impact Ratings (with Justification):

• Probability: High

This risk is highly probable given the extreme pricing pressure documented in the case study. Chinese manufacturers accounted for 60% of global PV production by 2012. It has been significantly undercut global prices due to lower labor costs and massive scale. It also includes direct government subsidies (Rasouli et al., 2023). First Solar’s 2011 10-K filing openly acknowledged this competitive pressure with Leadership and the Management of Project Risk. It has also been noting a structural imbalance between supply and demand and falling module prices worldwide.

• Impact: High

The consequences are significant. PV panels are designed to operate for several decades with very little decline. If durability or efficiency falls due to cost-saving measures, the company’s clients and investors may see lower returns, causing issues, claims or a loss of further clientele.

Earliest and Latest Time of Effect:

Risk of failure could start appearing within one year in areas with close scrutiny of installations and their results. Experts believe the lowest-performing modules installed in this cycle won’t last much longer and could begin to fail within the next three to five years.

1.1.2 Mitigation Plan

In order to address this risk, First Solar should continue using strong quality assurance measures everywhere they manufacture. The firm could try to bring down expenses by relying on technological updates, improved processes and approaches to design that still keep the product’s quality high with Leadership and the Management of Project Risk. Every key performance dashboard should have quality indicators which are also connected to the metrics that leaders need to meet.

1.1.3 Contingency Plan

Implementing automation, bringing in QA staff or redesigning development processes may require some extra expenses up front (Esiri, 2024). They can also be partly made up for by cutting down on the amount of waste and returns. Extra costs from claims, lawsuits or less future income cannot always be forecast and 2-3% of ordinary yearly income should be reserved.

1.1.4 Budgetary Implications

Automation, hiring more QA staff and updating R&D may initially require moderate payments. Reduced waste and returns help to mitigate some of these expenses. Contingency costs could rise and be uncertain because of claims, legal costs or loss of future earnings and should be included in a 2% to 3% quality reserve from the year’s budget.

1.1.5 Literature Support and Justification

According to Thompson and Ballen, 2017, ISO 9001, incorporating quality in process design, particularly during cost analysis, is important (ISO, 2015). Even in tough financial times, quality planning should stay active so as not to disappoint stakeholders. In the 2011 financial reports and discussions about strategy of First Solar, the possibility of dropping quality for lower prices is not merely theoretical but exists in reality.

This assignment sample examines project risk, quality management, and leadership at First Solar, focusing on cost-cutting pressures, product reliability, and risk mitigation strategies. An Assignment writing helper can support students in understanding risk assessment, contingency planning, quality assurance, and budget management.

1.2 Risk 2: Obsolescence Risk of Thin-Film CdTe Technology

1.2.1 Risk Specification

Condition: If trends show that consumers are opting for c-Si solar technologies due to their efficiency gains and lower silicon costs,

Consequence: The result is that First Solar’s CdTe technology which is their main product, could be replaced in the market. Such issues may result in fewer customers, lower income and inefficiency in the use of manufacturing facilities with leadership. Moreover, the company’s resources for research and its intellectual property might no longer meet the latest industry standards or what customers want.

Probability & Impact Ratings (with Justification):

• Probability: High
  The case study clearly points to a high chance of the risk occurring. By 2012, almost 85% of the solar panel market was controlled by c-Si technology. First Solar was able to stay cheap by using less raw material, until global silicon prices fell from $475/kg to $65/kg in 2008 to 2011, reducing their cost advantage.
• Impact: Very High
  The effects of obsolescence would be quite significant. CdTe technology forms the core of First Solar’s business. If the industry shifts away from thin-film, many companies would have to rework their equipment, alter their research strategy and possibly lose some of their patents and assets.

Earliest and Latest Time of Effect:

This could affect prices and market demand for PV solar systems within 1–2 years because buyers prefer efficient panels (Sommerfeldt et al., 2022). By 3–7 years, pervasive obsolescence is likely, assuming older thin-film technology maintains its disadvantage and the crystal-silicon industry rules.

1.2.2 Mitigation Plan

First Solar should act quickly to boost the efficiency of its CdTe technology, trying to match the levels seen in c-Si. Associating with universities and national labs may help faster innovation and development. The firm might also focus on thicker utility schemes in extensive areas and risk, where having higher cost-per-kWh is less significant than a single panel’s efficiency.

1.2.3 Contingency Plan

If CdTe technology reduces its edge, First Solar may have to begin using newer technologies (Barbato et al., 2021). This might involve acquiring licenses or skills for c-Si or focusing on combining different panel types as a systems integrator. The company should also get ready to either shut down or change the use of particular CdTe production lines if demand drops.

1.2.4 Budgetary Implications

Increased investment in research and development, about 10–20% higher than today’s levels, is likely needed for mitigation. Actions such as developing different technologies or changing the composition of a company’s assets can require major investments, company mergers or changes in plant layouts, all of which can affect finances greatly.

1.2.5 Literature Support and Justification

According to Thompson and Ballen, 2017, These companies are vulnerable to becoming obsolete, mainly when other firms lead with new innovations and drive down costs risk. This means that companies must invest in research and keep an eye on the market to manage problems from technical obsolescence. First Solar’s executives agree that it is difficult to maintain the lead in thin-film technology which highlights how important this issue is.

1.3 Risk 3: Quality Assurance Risk from Global Expansion

Condition: If First Solar continues to set up production facilities in Malaysia, Germany, Arizona and Vietnam under tight time and budget controls.

Consequence: There might be documented differences in QA practices between various factories. These results might include varying module performance, more errors during manufacturing, more claims under warranty and harm to the company’s reputation from global utility and commercial clients expecting consistency with leadership.

Probability & Impact Ratings (with Justification):

• Probability: Medium–High

The chances that this risk appears are considered moderate to high, because of the global and rapid growth mentioned in the case. In 2011, First Solar managed 36 production lines across the United States, Malaysia and Japan, while two new plants were being built in Arizona and Vietnam (Gokon, 2023). The Malaysian plant was the most cost-efficient, yet the case did not recommend creating uniform quality control approaches at every plant.

• Impact: High

The consequences could be significant. Errors at only one plant may cause many modules to be recalled, create contract disputes and damage the company’s reputation. If First Solar took on more utility-scale projects, any decreased performance could result in serious underperformance fines.

Earliest and Latest Time of Effect:

The risk can often appear soon after a new plant opens, especially during the early stages when staff are learning and the equipment is getting used for the first time with leadership and the Management of Project Risk.

1.3.2 Mitigation Plan

Implementing a worldwide QMS based on ISO 9001 will help First Solar address this risk (Barbosa et al., 2022). All manufacturing and testing processes should be handled the same way across all facilities.

1.3.3 Contingency Plan

In case product inconsistencies or defects are observed, First Solar must start a product tracking and recall operation. If a product has an issue after purchase, customers should get replacement products promptly or receive some performance credits risk. Clear and open communication with customers and stakeholders is essential to preserve trust.

1.3.4 Budgetary Implications

The focus of mitigating this threat is on developing strong systems, technology-based solutions and worldwide training initiatives. The high initial expenses are made up for by lower chances of defects and less money spent on warranties. Prevention of contingent actions is necessary to keep costs low, as ignoring such actions might affect both the profitability of the business and its cash reserves.

1.3.5 Literature Support and Justification

According to Thompson and Ballen, 2017, to ensure quality stays the same around the world, firms must handle operations in a unified and supervised way. According to the (2015) ISO guidelines, global QMS should be adjusted to local circumstances without compromising the main ideas. Quickly expanding operations worldwide often result in dividing quality control by region, making it necessary to unify processes to remove risks. These concerns can be seen in First Solar’s case, as the company expanded beyond its former single-site approach.

TASK 2: Risk Analysis Techniques

2.1 Technique Selection and Justification

2.1.1 Pareto Analysis

Pareto Analysis uses the 80/20 rule to discover which causes mostly influence the overall results. In the case of First Solar, this method is best for dealing with risks caused by the company’s global operations, technological rivals and pressure on costs with management. The firm has to contend with a range of issues, but according to the case study, primarily cost-cutting pressures, the obsolescence of thin-film materials and uneven product quality at global sites are expected to negatively influence their products (Wuni, 2022). Pareto Analysis helps First Solar channel its scarce risk management resources toward causing the greatest improvements in quality.

This approach matches the scenario in the case, where there are many problems affecting First Solar, but a key strategy is important to address these issues with fewer options. It allows for risk management practices to be chosen based on data and with logical reasoning.

Position in the Risk Management Lifecycle

The use of Pareto Analysis works best for risk identification and prioritisation when practicing risk management. It helps gather the necessary information before the real cause can be studied. For First Solar, applying Pareto at an early stage makes it easier for senior management to focus on the major risks and address them using more detailed analyses like Ishikawa or Riskit Analysis Graphs

According to Thompson and Ballen, 2017 Pareto Analysis plays an important role in determining what risks need attention first. The use of Pareto charts makes early risk workshops easier to follow since it shows the number of threats and guides decisions on where to invest resources. Pareto Analysis is practical and efficient in complex industries since most of the problems come from a small number of risk factors. The approach is most useful for organisations like First Solar when managing several risks simultaneously under budget or time pressure.

2.1.2 Riskit Analysis Graph

The Riskit Analysis Graph helps illustrate how a risk leads to outcomes and, in turn which effects those experiences have on stakeholders. This visual method makes it simple to understand how risks influence one another which is very useful when related factors and affected people are interlinked. The graph allows decision-makers to see how a risk event can create additional threats and impacts. The detailed approach allows the creation of solutions that are more successfully used to address climate changes.

Position in the Risk Management Lifecycle

The Riskit Analysis Graph is mainly used in the risk analysis and risk evaluation steps of the risk management process. When risks have been sorted by importance, this analysis helps explore what negative effects each risk could cause. In evaluating risks, this knowledge helps the organization to determine the size of each risk and choose suitable actions (Zhang et al., 2024). The Riskit Analysis Graph makes it easier to decide which risk management approach to take by showing both the possible risks and their results on stakeholders.

According to Thompson and Ballen, 2017 the adoption of visual tools such as the Riskit Analysis Graph to improve how a group handles risk. The visual methods boost community involvement and understanding because they break down complicated risks. The way risks are organized in the structure reflects the systemic risk management method, which believes risks are usually related and may affect many areas. For this reason, the Riskit Analysis Graph is ideal for industries like renewable energy, as technological, operational and market risks are closely linked there.

2.2 Application of Technique 1: Pareto Analysis

2.2.1 Define and Categorize Risks

The risks identified for First Solar are categorized based on their potential impact on the company’s The risks for First Solar are sorted based on how much they can affect the company’s goals and strategies with Leadership and the Management of Project Risk. Among the risks are Cost-cutting Quality Risk, Thin-Film Technology becoming outdated and the risk from new Quality Assurance challenges in international growth (Vu, 2021). Descriptions of risks show that the company struggles with maintaining product quality in the face of competitors, maintaining its technology in a changing industry and ensuring operations are steady in many manufacturing plants around the world. They focus on the main challenges that can harm the company’s performance, standing in the market and reputation.

2.2.2 Build Pareto Chart

The Pareto chart was created by arranging the risks based on the impact scores they were given to show their relative importance. The top axis lists the three highest risks and the left axis on the side measures how strongly they affect the business out of 120. The graph on the right part of the chart details the share of each risk that makes up the total impact (Pyzdek, 2021). Cost-cutting Quality Risk has been given a score of 50, Obsolescence of Thin-Film has been scored at 30 and Global Expansion QA Risk is at 20. The sum of all impact scores is 100. A line graph shows the increasing percentage of risk impact with each risk taken into account, starting at 50%, moving to 80% and finally 100%.

2.2.3 Identify “Vital Few” vs. “Trivial Many”

By using the Pareto principle which suggests 80% of results are due to just 20% of causes, the chart points out the top risks that need special focus. The Cost-cutting Quality Risk has the greatest impact at 50%, so it is the most important factor. Because of the Obsolescence of Thin-Film Technology, these two hazards together are responsible for nearly 80% of the total risk. The remaining 20% of Global Expansion QA Risk, also known as Trivial Many, is a smaller concern than Priority Multiple and Priority Few. By creating this distinction, decision-makers can direct their resources and attention to the risk areas that most impact First Solar’s performance.

2.2.4 Interpretation and Strategic Focus

Based on the figures found in the Pareto Chart, managing the Cost-cutting Quality Risk and the Obsolescence of Thin-Film Technology risks should be the top priorities in First Solar’s risk management approach. Product integrity and market viability suffer the most because of these risks. Even though the impact of this risk should be considered, it is not as severe as the primary risks and can be managed after the important risks are controlled. The chart’s approach adds value by making sure resources are used wisely to address the most serious issues first. This order of importance matches sound risk management, allowing First Solar to focus on both quality and new advances while everything remains smooth at their sites worldwide.

2.3 Application of Technique 2: Riskit Analysis Graph

2.3.1 Application to Thin-Film Technology Obsolescence

First Solar investigators have carried out a Riskit Analysis on the thin-film CdTe technology to examine the risk of obsolescence. This mainly results from the fact that c-Si technologies are favored now because of their efficiency and decrease in silicon prices across the industry. The graph shows how one risk can damage various business areas and affect different stakeholders.

2.3.2 Identification of Risk Scenarios, Consequences, and Impacts

Thin-Film Technology Obsolescence is highlighted as the sole main risk in the graph and it leads to four key issues: losing its market share, losing revenue, not making full use of the factories and inappropriate development efforts (Ukoba and Jen, 2025). All the consequences have been associated with particular groups affected. As a result, if the company loses market share, investors earn less money and management is required to make significant changes. As revenue falls, investors receive less in dividends and employees become less certain about their future with the company. If companies do not maximize their assets, many people may face layoffs and increased costs can put pressure on both the company’s financial results and potential for succeeding in the market. It emphasizes the fact that technology and business continuity are strongly connected.

2.3.3 Enhancing Risk Communication and Planning

The graph makes it easier to explain complicated risk scenarios by providing a simple and clear visual display. For managers as well as skilled teams, it becomes easier to spot what could take place, explain who would be involved and identify its consequences. This helps a lot during cross-functional risk workshops and meetings with stakeholders, where everyone needs to have the same understanding. The graph makes it simpler to plan mitigation steps by isolating the issues leading to the largest stakeholder effects (Mukwevho et al., 2025). Strategic mitigation could involve realigning R&D and widening the product range to ensure assets are used efficiently and customers remain happy. It improves the use of resources meant to handle risks, including better investor interaction or more effective ways to keep employees. Riskit Analysis Graph is a good tool in First Solar’s risk management system, giving everyone a good idea of how to respond early to a major and likely threat to stakeholders.

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References

Journal Articles

• Barbato, M., Artegiani, E., Bertoncello, M., Meneghini, M., Trivellin, N., Mantoan, E., Romeo, A., Mura, G., Ortolani, L., Zanoni, E. and Meneghesso, G., 2021. CdTe solar cells: technology, operation and reliability. Journal of Physics D: Applied Physics, 54(33), p.333002.
• Barbosa, L.C.F.M., de Oliveira, O.J., Machado, M.C., Morais, A.C.T., Bozola, P.M. and Santos, M.G.F., 2022. Lessons learned from quality management system ISO 9001: 2015 certification: practices and barrier identification from Brazilian industrial companies. Benchmarking: An International Journal, 29(8), pp.2593–2614.
• Gokon, N., 2023. Progress in concentrated solar power, photovoltaics, and integrated power plants towards expanding the introduction of renewable energy in the Asia/Pacific region. Current Sustainable/Renewable Energy Reports, 10(4), pp.250–263.
• Mukwevho, N., Mkhohlakali, A., Ntsasa, N., Sehata, J., Chimuka, L., Tshilongo, J. and Letsoalo, M.R., 2025. Methodological approaches for resource recovery from end-of-life panels of different generations of photovoltaic technologies–A review. Renewable and Sustainable Energy Reviews, 207, p.114980.
• Rasouli, M., Ayough, A., Khorshidvand, B. and Alemtabriz, A., 2023. Evaluating risk factors in solar energy investments: A strategic approach for Iran’s market. Solar Energy, 262, p.111884.
• Sommerfeldt, N., Lemoine, I. and Madani, H., 2022. Hide and seek: The supply and demand of information for household solar photovoltaic investment. Energy Policy, 161, p.112726.
• Wuni, I.Y., 2022. Mapping the barriers to circular economy adoption in the construction industry: A systematic review, Pareto analysis, and mitigation strategy map. Building and Environment, 223, p.109453.
• Zhang, Y., Zhang, H. and Feng, E., 2024. Cost-effective data lifecycle management strategies for big data in hybrid cloud environments. Academia Nexus Journal, 3(2).

Books, Reports, and Other Documents:

• Esiri, E., 2024. The role of QA automation in eliminating waste in project teams. [Unpublished manuscript/report].
• Pyzdek, T., 2021. Pareto analysis. In: The Lean Healthcare Handbook: A Complete Guide to Creating Healthcare Workplaces. Cham: Springer International Publishing, pp.157–164.
• Thompson, N. and Ballen, J., 2017. First Solar [online] Available at: file:///C:/Users/HP/Downloads/firstsolarcasestudyforassignment211654.pdf [Accessed 11 Jun. 2025].
• Ukoba, K. and Jen, T.C., 2025. Challenges and opportunities of thin films and 3D printing. In: Shaping Tomorrow: Thin Films and 3D Printing in the Fourth Industrial Revolution. Vol. 1: Fundamentals. London: Elsevier, pp.235–325.
• Vu, T.T., 2021. An investigation into current challenges in solar cell technology. [Unpublished research paper].