I Need 3 Or 4 Slides, Clear And Precise Problem Definition

I Need 3 Or 4 Slidespdr Contentclear And Precise Problem Definitiond

I Need 3 Or 4 Slidespdr Contentclear And Precise Problem Definitiond

I need 3 or 4 slides PDR Content •Clear and precise problem definition •Design goals / objectives, including some self -imposed requirements(if any) •Assembled and exploded views of your device oExploded view to have a naming/numbering convention captured on the slide •Loading scenarios, definition of the loads and load paths, free body diagrams, potential materials being considered etc. •List of tasks to be completed with specific due dates till CDR(shown in a simple Gantt Chart)

Paper For Above instruction

The presentation outlined requires a comprehensive overview of the preliminary design review (PDR) phase for a technical device or system development project. The core content involves creating 3 to 4 slides that clearly and precisely define the problem, establish design goals, and illustrate the development process through visual and analytical tools.

First, the problem definition slide should succinctly specify the technical challenge or need that the device aims to address. This includes identifying the core issue, target user requirements, and the intended application environment. A precise problem statement provides the foundation for all subsequent design decisions and ensures clarity among stakeholders.

The second slide should articulate the design goals and objectives. These might encompass performance criteria, reliability standards, usability factors, and constraints such as size, weight, or cost. If applicable, self-imposed requirements—criteria that the designers set independently—should also be included to guide innovation and innovation boundaries. Clear, measurable objectives facilitate evaluation during later stages.

The third slide should feature visual representations of the device through assembled and exploded views. The exploded view should incorporate a clear naming or numbering convention for each component, aiding in identification and referencing during discussions and documentation. This visual approach helps in understanding how the device components fit together and their individual functions.

The fourth slide should analyze loading scenarios pertinent to the device. This includes defining the types of loads (mechanical, thermal, electrical), their magnitudes, and how they are transmitted through the system. Load paths should be illustrated using free body diagrams (FBDs), showcasing how forces flow through the components. Consideration of potential materials adds context to manufacturing choices and performance expectations, emphasizing material properties relevant to stress, weight, and durability.

Additionally, an organized task list with specific due dates leading up to the Critical Design Review (CDR) is essential. A simple Gantt Chart should portray the timeline, clearly indicating milestones and deadlines for task completion. This planning ensures the project remains on schedule, with coordinated efforts toward achieving key objectives before the final review.

Overall, these slides collectively provide a comprehensive snapshot of the project’s initial design phase, combining precise problem definition, defined objectives, detailed visual schematics, rigorous analysis of operational loads, and systematic planning. Such clarity enhances communication among team members and stakeholders, facilitating smooth progress toward successful system development and evaluation.

References

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