MEM604 Engineering Management Capstone Report 3
Context
In Assessment 1, you developed a research project proposal that addressed, among others, the development of a project plan for your research culminating in a final research project. Assessment 2 required you to describe the progress that you achieved in your research, as well as reflecting on your research learning, experience, and challenges that you faced and overcame.
Assessment 3 allows you to build on Assessments 1 and 2, apply the knowledge that you have gained in this course, and use new research skills that you have learned in this subject to produce a final research project.
Completion and acceptance of a final research project report in 2500 words (+/- 10%) to include: the title of the research topic; aim of the research: research questions addressed; methodology, research ethics, research limitations; description of the research completed; findings and recommendations; research gaps and further research required; references.
Please refer to the Task Instructions for details on how to complete this task.
To complete this assessment, you need to organise and write a report on the research that you have done throughout the subject, including building on the research that you presented in Assessment 2.
Below is a guide to structuring the report:
1. Student name, student number, academic supervisor
2. Introduction
3. Title of the research topic
4. Project purpose and objectives
5. Research questions
6. Methodology
7. Summary of research conducted against research questions
8. Findings
9. Recommendations
10. Conclusions
11. Further research required
12. References
13. Attachments
Referencing
It is essential that you use appropriate APA style for citing and referencing research. Please see more information on referencing here: https://library.torrens.edu.au/academicskills/apa/tool
Optimizing Resource Allocation in Multi-Project Engineering Environments
In multi-project engineering environments, where several projects run concurrently, effective resource allocation becomes increasingly complex. This complexity often leads to challenges such as resource conflicts, delays, and inefficient utilization, which can significantly impact project outcomes. This research aims to explore strategies for optimizing resource allocation, providing actionable insights to enhance project performance and efficiency in these dynamic environments. By analyzing existing methodologies and identifying best practices, the study seeks to offer solutions that minimize resource-related issues and improve overall project success.
Under the multi-project engineering, circumstances, whereby several projects run concurrently complicate the resource management process. As with most projects, various resources such as human resources, tools and materials, and machinery need to be procured and effectively planned to ensure that projects are accomplished as planned (Li et al., 2017, p. 3). However, this complexity offers rise to several significant problems. Where there are competing resources, there may be resource conflicts because the resources will be in contention by different projects, hence, may lead to time wastage. For instance, skilled personnel or specific types of equipment may get hired more than required or less required due to improper scheduling (Pérez et al., 2015, p. 4). This mismanagement not only affects the time of a specific project but also affect the other projects in the portfolio. Problems of optimization of resources may lead to extraordinary big delays in projects and to formation of bottlenecks for MBA assignment expert.
Resources may be badly exploited, this may be in one of two ways; overload, where resources are stretched to the limit thus become week and prone to making mistakes or starved, where resources are underutilized hence the company incurs more than necessary in terms of costs and time (Engwall & Jerbrant, 2003, p. 5). The other factor is that when resources are inefficiently utilized, it costs much more than when it is used strategically and effectively. Longer time spans are another factor where compensation requirements are necessary to offset those losses; other factors include potential penalties that customers or other parties involved can impose on the project (Anjay, 2020, p. 2). Furthermore, availability and poor management of resources means that these resources could be exhausted or poorly used, thereby producing poor quality work. This can lead to under delivery in terms of project objectives and goals an important reason that leads to a revision of the projects resulting in cost blowers and time overruns. Hence, there is a high likelihood of risks and negativity associate with the aforementioned challenges thus doing away with them has significant impacts on enhancing the performance of projects and organizations.
This research aims to explore and identify effective strategies for optimizing resource allocation in multi-project engineering environments. By analyzing existing methodologies and identifying best practices, the study will provide actionable insights and recommendations to help organizations overcome the challenges of resource conflicts, delays, and suboptimal utilization.
This research aims at finding out the best way of managing resources utilisation in multi project engineering environments with the intention of increasing efficiency, reduce constraints and possibly improve results. In other words, the first and the foremost research aim is to explore the key issues that are related to the management of resources in various concurrent projects. To achieve this, there will be an assessment of strategies and methodologies that are in place for tackling these difficulties. Another goal is also to present modifications to these strategies since there may be more effective ways to deploy resources and increase the efficiency of projects. Furthermore, the research seeks to find out the extent of effectiveness of the use of more endorsed project management tools and technologies in enlisting the best resources. Consequently, to achieve the aforementioned goals, the project aims to offer tangible findings and recommendations that organizations can affect in their arrangements to optimise their resource management frameworks for increased effectiveness in their engineering initiatives.
Research questions are formulated to enrich the understanding of the complexities of resource management within the context of multiple engineering projects. The first question focuses on issues, which are encountered and may include resource contention, availability and utilization delays, and resource contention issues. The second question specifies the current practices concretely with regard to the resource allocation, making sure one has an adequate starting point of the current state of methodologies. To this end the third question will address objective of Identifying additional ways of improving upon these strategies in order to optimise general project performance and efficiency and utilisation of available resources.
1. What are the common challenges associated with resource allocation in multi-project engineering environments?
2. What strategies and methodologies are currently used to optimize resource allocation in such environments?
3. How can these strategies be improved to enhance overall project performance and resource utilization?
The Research Onion framework for this study begins with a pragmatic philosophy, integrating both qualitative and quantitative data for a well-rounded understanding of resource allocation issues in multi-project engineering environments. The research follows an inductive approach, starting with a review of existing theories and literature. A mixed-methods strategy is used, combining comprehensive literature review and case study analysis to gather in-depth data on current practices and challenges (Almeida 2018, p 2). The study employs multi-method quantitative and qualitative techniques to ensure a robust analysis. It adopts a cross-sectional time horizon, examining data from multiple projects at a single point in time to identify patterns and trends. Finally, techniques and procedures involve secondary research through literature review and qualitative analysis of case studies, synthesizing information to develop insights and recommendations.
Figure 1: Research Onion framework
Source: Self Prepared
The methodology for this research will be based on secondary research through a comprehensive literature review. This will involve:
1. Identifying and reviewing existing research articles, reports, and case studies relevant to resource allocation in multi-project engineering environments.
2. Analysing the findings from these sources to identify common themes, challenges, and strategies.
3. Synthesizing the information to develop insights and recommendations for optimizing resource allocation.
1. The study is limited to secondary data, which may not fully capture the nuances of all multi-project environments.
2. The cross-sectional nature of the research may not account for changes over time in resource allocation practices.
3. Potential biases in the reviewed literature and case studies may affect the findings.
The chosen methodology ensures validity and reliability by:
1. Using a mixed methods approach to provide a balanced perspective.
2. Triangulating data from multiple sources to enhance accuracy.
3. Systematically analysing and synthesizing information to ensure consistency.
This research will adhere to ethical guidelines by:
1. Properly citing all sources and giving credit to original authors to avoid plagiarism.
2. Ensuring that all reviewed materials are used within the bounds of fair use for educational and research purposes.
3. Maintaining objectivity and transparency in reporting findings and avoiding any form of bias or misrepresentation of data.
The proposed research plan is attached in following figure:
Figure 2: Research Plan
Source: Self prepared
Summary of research conducted against research questions
“Theme 1: Common issues in Resource Allocation”
The research identifies different key issues in resource allocation within multi-project engineering environments. Resource conflicts that arise due to competing for the effective demand and leading to inefficiencies such as time wastage and mismanagement of the skilled personnel and different equipment (Xu et al. 2021). The overlapping of the resources signifies a strain on the main workforce and increased costs and specific delays, ultimately compromising the project quality and objectives. These issues highlight the main complexity to balance the resource demand across concurrent projects. Common issues in resource allocation include competing priorities, limited resources, and inefficient distribution. In healthcare, funding may be insufficient to cover all the patient needs, leading to prioritisation dilemmas (Noor-A-Rahim et al. 2020). While in project management, inadequate resource planning can result in missed deadlines and budget overruns.
“Theme 2: Present Strategies and Methodologies”
Existing methodologies to optimize the resource allocation involve various approaches that include the competency-based allocation, community detection for resource levelling and optimization models. These effective strategies aim to balance the resource distribution, develop scheduling efficiency and reduce conflicts (Noor-A-Rahim et al. 2020). Moreover, the specific effectiveness of these methodologies varies, with each having its limitations and areas for improvement. The literature reviews factors on reliance on both innovative and traditional techniques resources effectively. Agile methodology in software development signifies the main project progress, work collaboration, and adaptability (Turner et al. 2021). Another example is the use of the data-driven marketing strategies, where businesses analyse customer data to tailor personalised marketing campaigns, enhancing engagement and conversion rates.
“Theme 3: Improvement of Resource Allocation strategies”
The research suggests that refined present strategies can significantly develop project performance and resource utilization (Turner et al. 2021). The recommendations basically include to adopt more advanced project management tools and technologies, integrating real-time data analytics for better decision-making and developing more flexible data analytics for better decision-making to develop more flexible adaptive resource allocation models.
Figure 3 Resource allocation strategy
(Source: Shang et al. 2022)
These improvements aim to address existing gaps to decrease bottlenecks to optimize resource deployment across multiple projects, analysing the overall efficiency and effectiveness in engineering environments. These strategies involve optimising the distribution of resources such as time, money, and labour to develop work efficiency and outcomes (Radinmanesh et al. 2021). As an example, a company might use data analytics to allocate marketing budgets more effectively, or a hospital might adopt a new scheduling system to reduce patient wait times and maximise the staff productivity.
Findings
implications are drawn from the study of resource allocation optimization in multi-project engineering systems. Firstly, resource conflicts resulting from overlapping resources across several projects are one of the most common issues (Xu et al. 2021, p.5). These disputes frequently lead to inefficiencies, including delays and improper use of trained staff and equipment, which jeopardize the projects' goals and overall quality. Overlapping resources make it much more difficult to balance resource demand across several ongoing projects, which raises costs and causes delays in particular.
Figure 4: Findings
Source: (Self Prepared)
The fact that several approaches and techniques are currently being used for resource allocation—such as competency-based allocation, community identification for resource levelling, and optimization models—is another noteworthy discovery. Although these tactics aim to decrease disputes and increase scheduling efficiency, their efficacy differs. Competency-based allocation, for example, aims to match resources to project needs according to experience and skill levels. This might enhance project results but could not deal with the problem of resource scarcity (Noor-A-Rahim et al. 2020, p 7). Comparably, resource levelling using community identification seeks to allocate resources equitably throughout projects, however it might not be adaptable enough to change with project contexts.
Furthermore, the study shows that a lot of companies use a mix of conventional and novel methods for allocating resources. Agile software development approaches, for instance, place a strong emphasis on cooperation, flexibility, and iterative development. This can improve resource efficiency by allowing teams to react swiftly to project requirements that change over time. But not all engineering specialties may be able to use these approaches equally, especially in situations when projects are highly interrelated and require precise coordination.
Several suggestions for improving resource allocation in multi-project engineering contexts may be made in light of the findings. The creation and application of adaptable, flexible resource allocation models that can take into account the dynamic character of engineering projects should be given top priority by companies (He, Li & Wang 2021, p 3). The danger of resource conflicts and inefficiencies should be decreased by these models' capacity to adapt to changes in project scope, timeframes, and resource availability.
Second, businesses must spend money on cutting-edge technology and tools for project management, such machine learning algorithms and real-time data analytics. Through the provision of precise and timely information on resource availability and project progress, these technologies can assist companies in optimizing resource allocation. For instance, real-time data analytics can enable project managers to identify potential bottlenecks and make adjustments before they escalate into significant delays (Ochuba et al. 2024, p 5).
Third, companies want to think about implementing a more cooperative resource allocation strategy, in which project teams coordinate to determine and meet resource requirements. By using this strategy, resource disputes can be less common and resources can be distributed according to the organization's overall requirements rather than the importance of any one project (Gupta 2021, p 4). Allocating resources collaboratively can help promote a shared responsibility culture, which increases the likelihood that project teams will cooperate to accomplish shared objectives.
Fourth, companies want to investigate competency-based allocation techniques, in which resources are distributed according to the knowledge and expertise of the individuals involved. This strategy can aid in making sure that resources are used wisely and that tasks are finished to a high degree. However, it is important to recognize that competency-based allocation may not always be feasible, particularly in environments where resources are scarce.
In the long run, organizations that want to improve the skills and capacities of their workers should spend money on training and development programs. This can assist in guaranteeing that resources are both accessible and competent to fulfill the requirements of intricate engineering projects. Organizations may increase the general efficacy and efficiency of their resource allocation procedures by investing in the ongoing training of their personnel.
The study emphasizes how crucial it is to allocate resources wisely in multi-project engineering settings. Resource conflicts, inefficiencies, and poor usage present substantial problems that can have a profound impact on project outcomes and organizational performance. However, companies may overcome these obstacles and maximize their resource management frameworks by using a more adaptable and flexible approach to resource allocation, bolstered by cutting-edge project management technologies and a collaborative culture.
The report also emphasizes how important it is for businesses to fund employees' ongoing professional development and look into creative and novel ways to allocate resources. While community detection and competency-based allocation are still important approaches for resource leveling, they must be supplemented by more sophisticated plans that make use of real-time data analytics and machine learning.
Even though this study offers insightful information on resource allocation in multi-project engineering settings, more research is still required in a number of areas. Initially, research in the future might examine how various resource allocation techniques affect project outcomes and organizational performance over the long run (Khatun et al. 2021). This may entail long-term research projects that monitor resource distribution strategies and their outcomes over time, offering a more thorough grasp of their efficacy.
Second, studies on how new technologies—like machine learning and artificial intelligence—affect the distribution of resources are needed. Even though the potential advantages of real-time data analytics have been emphasized in this study, there may be even more room for improvement with the use of more sophisticated technology (Sircar et al. 2021, p 5). Research in this area could focus on the development and testing of AI-driven resource allocation models, as well as the challenges and opportunities associated with their implementation.
Third, studies on the organizational and cultural elements influencing resource allocation procedures may be conducted in the future. Research on the effects of communication, leadership, and organizational culture on the efficiency of resource allocation plans may fall under this category (Nabella et al. 2022, p 2). Comprehending these variables may aid firms in crafting more customized and efficient frameworks for managing resources.
Lastly, studies that investigate the particular difficulties and chances related to resource distribution across various engineering specialties are required. Although the scope of multi-project engineering settings has been broadened in this study, future targeted research might offer deeper insights into the particular resource allocation requirements of other businesses or sectors. This might aid in the creation of more focused suggestions and tactics for maximizing the use of resources in certain situations
Almeida, F 2018, STRATEGIES TO PERFORM A MIXED METHODS STUDY, ResearchGate, unknown. https://www.researchgate.net/publication/329402482_STRATEGIES_TO_PERFORM_A_MIXED_METHODS_STUDY
Anjay Kumar Mishra. (2020). IMPLICATION OF THEORY OF CONSTRAINTS IN PROJECT MANAGEMENT. https://doi.org/10.5281/zenodo.3605056
Engwall, M., & Jerbrant, A. (2003). The resource allocation syndrome: the prime challenge of multi-project management? International Journal of Project Management, 21(6), 403–409. https://doi.org/10.1016/s0263-7863(02)00113-8
Li, X. B., Nie, M., Yang, G. H., & Wang, X. (2017). The Study of Multi-Project Resource Management Method Suitable for Research Institutes from Application Perspective. Procedia Engineering, 174, 155–160. Sciencedirect. https://doi.org/10.1016/j.proeng.2017.01.191
Noor-A-Rahim, M., Liu, Z., Lee, H., Ali, G. M. N., Pesch, D., & Xiao, P. (2020). A survey on resource allocation in vehicular networks. IEEE transactions on intelligent transportation systems, 23(2), 701-721. https://ieeexplore.ieee.org/iel7/6979/9701814/09186820.pdf
Pérez, E., Posada, M., & Lorenzana, A. (2015). Taking advantage of solving the resource constrained multi-project scheduling problems using multi-modal genetic algorithms. Soft Computing, 20(5), 1879–1896. https://doi.org/10.1007/s00500-015-1610-z
Radinmanesh, M., Ebadifard Azar, F., Aghaei Hashjin, A., Najafi, B., & Majdzadeh, R. (2021). A review of appropriate indicators for need-based financial resource allocation in health systems. BMC health services research, 21, 1-12. https://link.springer.com/article/10.1186/s12913-021-06522-0
Gupta, O 2021, What is Resource Allocation, and Why is it Important?, Resources Library.
https://www.linkedin.com/pulse/what-resource-allocation-why-important-mahendra-gupta-pmp
He, W, Li, W & Wang, W 2021, ‘Developing a Resource Allocation Approach for Resource-Constrained Construction Operation under Multi-Objective Operation’, Sustainability, vol. 13, no. 13, p. 7318. https://doi.org/10.3390/su13137318
Mst. Minara Khatun, Kazuo Hiekata, Takahashi, Y & Okada, I 2021, ‘Dynamic Modeling of Resource Allocation for Project Management in Multi-Project Environment’, IOS Press eBooks, IOS Press. http://dx.doi.org/10.3233/ATDE210101
Nabella, SD, Rivaldo, Y, Kurniawan, R, Nurmayunita, Sari, DP, Luran, MF, Amirullah, Saputra, EK, Rizki, M, Sova, M, Nurhayati & Wulandari, K 2022, ‘The Influence of Leadership and Organizational Culture Mediated by Organizational Climate on Governance at Senior High School in Batam City’, Journal of Educational and Social Research, vol. 12, no. 5, pp. 119–130. http://dx.doi.org/10.36941/jesr-2022-0127
None Nneka Adaobi Ochuba, None Olukunle Oladipupo Amoo, Stefano, E, None Olatunji Akinrinola & Favour, N 2024, ‘STRATEGIES FOR LEVERAGING BIG DATA AND ANALYTICS FOR BUSINESS DEVELOPMENT: A COMPREHENSIVE REVIEW ACROSS SECTORS’, Computer science & IT research journal, vol. 5, Fair East Publishers, no. 3, pp. 562–575. http://dx.doi.org/10.51594/csitrj.v5i3.861
Sircar, A, Yadav, K, Rayavarapu, K, Bist, N & Oza, H 2021, ‘Application of machine learning and artificial intelligence in oil and gas industry’, Petroleum Research, vol. 6, no. 4. https://www.sciencedirect.com/science/article/pii/S2096249521000429
Shang, Q., Huang, Y., Dong, J., Hou, Y., Wang, Y., Li, M. and Feng, L., 2022. Multi-space evolutionary search with dynamic resource allocation strategy for large-scale optimization. Neural Computing and Applications, 34(10), pp.7673-7689. https://link.springer.com/article/10.1007/s00521-021-06844-4
Turner, H. C., Archer, R. A., Downey, L. E., Isaranuwatchai, W., Chalkidou, K., Jit, M., & Teerawattananon, Y. (2021). An introduction to the main types of economic evaluations used for informing priority setting and resource allocation in healthcare: key features, uses, and limitations. Frontiers in public health, 9, 722927. https://www.frontiersin.org/journals/public health/articles/10.3389/fpubh.2021.722927/pdf
Xu, Y., Gui, G., Gacanin, H., & Adachi, F. (2021). A survey on resource allocation for 5G heterogeneous networks: Current research, future trends, and challenges. IEEE Communications Surveys & Tutorials, 23(2), 668-695. https://www.techrxiv.org/doi/pdf/10.36227/techrxiv.11954790.v1