First off, this project gives insight into how to define various systems management (project management and systems engineering) terms and to answer to the frequently asked questions in systems management. Specifically, to think like a systems engineer by changing the way of approaching and specifying a solution or addressing problems. Then the overall purpose is to use and apply Systems Engineering approaches to solve the high levels of unstructured problem situation and try to structure a debate concerning actions for improving the problem "energy program" situation within the System (University of Witwatersrand-Johannesburg).
Table of Contents
1. Introduction
1.1 Stakeholders Analysis
2. TASK#1: Situation Analysis via - Peter Checkland’s SSM
2.1 Step n◦1: Problem Situation: Unstructured
2.1.1 The Naive Picture
2.1.2 The Problem Statement
2.2 Step n◦2: Problem Situation: Expressed
2.2.1 The Rich Picture:
2.2.2 The Relevant Systems
2.3 Step n◦3: Root definition on relevant system
2.3.1 Root definition of the Ellies Renewable energy
2.3.2 The CAPETOWN MODEL
3. TASK#2: Outline:
3.1 Five functions of a Systems Engineer
3.2 The purpose of the Systems Engineering Management Plan (SEMP)
3.3 Systems Engineering Management Plan (SEMP)
3.3.1 Statement of Work (SoW)
3.3.2 Scope of Work
a. Technical Objectives:
b. Assumptions and Constraints
3.3.3 Ellies System Structure
3.3.4 Work Breakdown Structure (WBS)
a. Schedule Planning
b. Major Deliverables
c. Major phases
d. Responsibility Assignments
3.3.5 Risk Management
3.3.6 Operation and Maintenance
4. Conclusion
5. References
Objectives and Themes
The primary objective of this project is to apply Systems Engineering and Systems Management principles to develop an energy efficiency program for the University of the Witwatersrand. The central research aim is to address the unstructured problem of high energy consumption by utilizing Peter Checkland's Soft Systems Methodology (SSM) and defining a structured Systems Engineering Management Plan (SEMP) to achieve a 50% reduction in energy costs within 18 months.
- Application of Soft Systems Methodology (SSM) for problem structuring.
- Development of a Systems Engineering Management Plan (SEMP) including WBS and risk management.
- Stakeholder analysis and definition of technical requirements for solar energy infrastructure.
- Strategic project planning, scheduling, and resource assignment for organizational energy efficiency.
Excerpt from the Book
3.1 Five functions of a Systems Engineer
The systems engineer functions involve:
• Technical Planning and strategy: the systems engineer collaborates with executive team members, decision makers, and stakeholders to define requirements and systems goals, and to identify and resolve systems issues.
• Operational Management: the systems engineer proposes and creates system design models, specifications, diagrams, and charts to provide direction to the development teams.
• Stability, integrity, and efficient operation within the systems life cycle.
• Organizing and staffing (chart working groups, reviews, risk Management, recruiting, training and team Building).
• Controlling and directing (Baseline Control, System Design Team Meetings, Requirements development, Verification and Validation, Performance Appraisals).
Summary of Chapters
1. Introduction: Outlines the case study mandate to reduce the university's energy bill by 50% and identifies the primary stakeholders involved in the solar panel installation.
2. TASK#1: Situation Analysis via - Peter Checkland’s SSM: Utilizes the Soft Systems Methodology to move from an unstructured problem situation to a defined model, including the creation of a 'Rich Picture' and a 'CAPETOWN' model for the system.
3. TASK#2: Outline: Provides a detailed Systems Engineering Management Plan, covering the scope of work, technical objectives, risk management strategies, and operational maintenance requirements.
4. Conclusion: Summarizes the key learning outcomes regarding systems architecture, the application of systems management principles, and the importance of stakeholder satisfaction in complex projects.
Keywords
Systems Engineering, Soft Systems Methodology, Energy Efficiency, University of the Witwatersrand, Solar Panels, Systems Engineering Management Plan, Stakeholder Analysis, Risk Management, Work Breakdown Structure, Sustainability, Project Management, Infrastructure, CAPETOWN Model, Renewable Energy, Systems Lifecycle.
Frequently Asked Questions
What is the core focus of this project?
The project focuses on applying systems engineering principles to design and implement an energy efficiency program at the University of the Witwatersrand to reduce energy consumption by 50%.
What are the central themes of the work?
Key themes include problem situation analysis, systems thinking, stakeholder management, technical planning, and the creation of comprehensive project management documentation.
What is the primary goal of the research?
The goal is to structure the complex, unstructured problem of energy management into a manageable engineering project using specific methodologies like SSM and SEMP.
Which scientific methodology is primarily used?
The author primarily employs Peter Checkland’s Soft Systems Methodology (SSM) to analyze and structure the problem before moving into technical project execution.
What is covered in the main body of the work?
The main body details the stakeholder analysis, the application of the SSM model (including the Rich Picture), and the development of a formal Systems Engineering Management Plan (SEMP) containing the WBS and risk assessments.
Which keywords characterize this paper?
The paper is characterized by terms such as Systems Engineering, Energy Efficiency, Soft Systems Methodology, Solar Infrastructure, and Risk Management.
How does the CAPETOWN model contribute to this project?
The CAPETOWN model helps define the root system by categorizing customers, actors, transformation processes, worldviews (Weltanschauung), and ownership, ensuring all system aspects are considered.
Why is Risk Management critical for the proposed energy program?
Risk management is vital to mitigate threats like scope creep, budget overruns, and supply chain delays, which are identified and categorized to ensure the 18-month timeline remains achievable.
- Quote paper
- Roland Nathan Kalonji (Author), 2017, System Engineering and Energy programs, Munich, GRIN Verlag, https://www.grin.com/document/426006
