7-2 Analysis Paper Final.edited
docx
keyboard_arrow_up
School
Southern New Hampshire University *
*We aren’t endorsed by this school
Course
510
Subject
Industrial Engineering
Date
Dec 6, 2023
Type
docx
Pages
5
Uploaded by jalenrhawkins
1
7-2 Analysis Paper: Evaluating Tools for Improving the New Product Development
Process
Student’s Name
Institutional Affiliation
Course Name and Number
Instructor’s Name
Due Date
2
7-2 Analysis Paper: Evaluating Tools for Improving the New Product Development
Process
In today's fast-paced technological landscape, the journey from innovation to a
successful product launch is marked by numerous challenges. Developing a groundbreaking
technological innovation like HYPERVSN demands meticulous planning and the strategic
use of tools to ensure efficiency and excellence. This analysis delves into five specific tools
for enhancing the new product development process and assesses their applicability to the
unique needs of HYPERVSN. These tools form the cornerstone of our evaluation. They
include Stage-Gate Processes, Quality Function Deployment, Design for Manufacturing,
Failure Modes and Effects Analysis, and Computer-Aided
Design/Engineering/Manufacturing. Analyzing these tools will pave the way for a smoother,
more effective development process for HYPERVSN while keeping customer requirements at
the forefront.
Stage-Gate Processes
The Stage-Gate process is highly effective in managing new product development. It
provides a structured framework for decision-making at critical project junctures (Nafisi et
al., 2019). For HYPERVSN, a groundbreaking technological innovation, employing this tool
would be prudent. It allows for continuous evaluation and ensures that resources are allocated
efficiently. It breaks down the development process into incremental commitments, escalating
expenditures as uncertainty decreases (Cooper, 2008). Thus, I recommend incorporating the
Stage-Gate process to manage HYPERVSN's development effectively.
Quality Function Deployment (QFD)
Quality function deployment, with its 'House of Quality' framework, is particularly
valuable for aligning customer requirements with product attributes. It aligns expectations
3
with capabilities and highlights design trade-offs (Moser, 2022). Given that HYPERVSN is
an innovative product, understanding and meeting customer expectations is vital. Quality
function deployment can help ensure that your innovation caters to the needs and desires of
the target audience (Moser, 2022). Therefore, incorporating QFD is highly recommended for
HYPERVSN to meet customer desires with precision.
Design for Manufacturing (DFM)
Design for manufacturing is essential in ensuring that product designs are easy to
manufacture, which can reduce costs and increase product quality. Simplifying assembly,
reducing costs, and enhancing product quality are its driving forces (Nafisi et al., 2019). For
HYPERVSN, where the design and engineering aspects are critical, adopting design for
manufacturing principles can streamline the development process and enhance
manufacturability. Thus, it is advisable to include DFM in your development strategy.
Failure Modes and Effects Analysis (FMEA)
Failure modes and effects analysis help identify potential failure modes and their
consequences. It identifies these failures, ranks them by severity, likelihood, and detectability,
and devises strategies to mitigate them (Moser, 2022). Considering the innovative nature of
HYPERVSN, it is crucial to anticipate and mitigate potential issues. By implementing
FMEA, you can proactively address risks, enhance product reliability, and reduce the
likelihood of post-launch problems (Moser, 2022). Therefore, FMEA is highly recommended
for HYPERVSN.
Computer-Aided Design/Engineering/Manufacturing (CAD/CAE/CAM)
These computer-based tools are indispensable for designing and testing product
prototypes. Given the complex nature of HYPERVSN, CAD, CAE, and CAM can expedite
Your preview ends here
Eager to read complete document? Join bartleby learn and gain access to the full version
- Access to all documents
- Unlimited textbook solutions
- 24/7 expert homework help
4
the design and testing phases, allowing for more iterations and optimization (Boldyrev et al.,
2021). They are integral for ensuring that your innovation meets the highest standards.
Conclusion
In technological innovations, the role of these tools is indisputable. Implementing
Stage-Gate Processes, Quality Function Deployment, Design for Manufacturing, Failure
Modes and Effects Analysis, and Computer-Aided Design/Engineering/Manufacturing is a
strategic move that sets the stage for success. The blend of structured project management,
customer-centric design alignment, manufacturability focus, risk mitigation, and digital
innovation provides HYPERVSN with the holistic support it requires to navigate the
intricacies of new product development.
5
References
Boldyrev, Y. Y., Glukhov, V. V., Stelmashonok, E. V., Krasnyuk, L. V., & Mahmudova, G.
(2021, July). Computer engineering as the knowledge-intensive core of digital
Production: origin and development. In
IOP Conference Series: Earth and
Environmental Science
(Vol. 816, No. 1, p. 012006). IOP Publishing.
Cooper, R. G. (2008). Perspective: The stage‐gate® idea‐to‐launch process—update, what is
new, and nexgen systems.
Journal of Product Innovation Management
,
25
(3), 213-
232.
Moser, B. R. (2022, November). Design for Producibility: A Case Study on Theory, Practice
and Gaps. In
Transdisciplinarity and the Future of Engineering: Proceedings of the
29th International Society of Transdisciplinary Engineering (ISTE) Global
Conference, July 5–July 8, 2022, Cambridge, MA, USA
(Vol. 28, p. 134). IOS Press.
Nafisi, M., Wiktorsson, M., Rösiö, C., & Granlund, A. (2019). Manufacturing engineering
requirements in the early stages of new product development—A case study in two
assembly plants. In
Advanced Applications in Manufacturing Engineering
(pp. 141-
167). Woodhead Publishing.